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   "id": "r-6875140b9128",
   "title": "Dimensional Chess Experiment C1",
   "titleBasis": "source",
   "type": "note",
   "project": "chess",
   "projects": [
    "chess"
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   "series": "dimensional-chess",
   "version": "1",
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   "date": "2026-09-15",
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   "declaredDates": [
    "Date: 15 September 2026"
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   "statusBasis": "r-6875140b9128 is an exact KRK computation that later records reuse rather than replace; r-3fe7cf744ab8: \"C1's state/transition/canonicalization/fixed-point pipeline was independently reimplemented for White king and queen versus Black king on the standard board.\"",
   "question": {
    "text": "Can the programme's computational disciplines (hidden-state completion, a proved symmetry quotient, fixed-point cycle handling) solve a closed chess universe exactly, with an independently checked certificate?",
    "basis": "editorial"
   },
   "result": {
    "text": "Every legal position in that universe has now been solved simultaneously. The result is an exact endgame tablebase with an independently checked proof certificate.",
    "basis": "source"
   },
   "checks": {
    "text": "verify_dimensional_chess.py imports no production function. It independently reconstructs: 1. all 399,112 raw legal positions; 2. all 50,015 symmetry orbits; 3. every legal transition and checkmate/stalemate condition; 4. all 400,120 symmetry-closure comparisons; 5. every win/loss/draw Bellman equation; 6. every shortest-mate and longest-defense distance; 7. every stored optimal policy edge; 8. all 32 concrete moves in the longest principal variation; 9. the certificate and principal-variation digests.",
    "basis": "source",
    "sourceSection": "source-h-8"
   },
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    "text": "It solved a complete chess universe, not the initial position of full chess.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "It is to discover a uniform canonical relation \\(\\kappa\\) satisfying the same closure law as (C1.1) while collapsing astronomically more states.",
    "basis": "source"
   },
   "abstract": {
    "text": "Chess is finite once its complete rules and history-dependent draw state are fixed, so its initial position has a definite game-theoretic value: White win, draw, or Black win. Finiteness proves that an exhaustive solution exists in principle. It does not prove that the solution has a physically feasible computation or a compact polynomial representation.",
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   "title": "Dimensional Chess C2: Full-Chess Gate",
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   "type": "note",
   "project": "chess",
   "projects": [
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   "series": "dimensional-chess",
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   "date": "2026-09-15",
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   "statusBasis": "r-d06ca187fd05 builds on C2's frozen ruleset rather than replacing it: \"This checkpoint moves the project from isolated endgames to the orthodox initial position under the frozen FCS-2023 rules.\"",
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    "text": "The project goal is now frozen: determine the game-theoretic value of the normal chess initial position and emit a machine-verifiable strategy certificate.",
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   },
   "result": {
    "text": "Exact strong-bisimulation refinement was computed on KRK and KQK. It preserves every certified WDL/DTM value, but compresses very little beyond the eight board symmetries.",
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    "text": "C1's state/transition/canonicalization/fixed-point pipeline was independently reimplemented for White king and queen versus Black king on the standard board. The declared abstraction treats checkmate as a win and stalemate, queen capture, or infinite non-mating play as a draw; history-dependent FIDE draws are outside this small material universe.",
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    "text": "Using the completed tables as an oracle, C2 measured the maximum pruning opportunity. These measurements do not constitute a pre-solution classifier.",
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    "text": "The missing variable is narrower than before: a cheap relational signature and refinement rule that produces strong enough $D^-/D^+$ bounds to certify most move deletions before the underlying states are solved.",
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    "text": "The project goal is now frozen: determine the game-theoretic value of the normal chess initial position and emit a machine-verifiable strategy certificate. A principal variation, a strong engine, or a large set of solved endgames is not enough.",
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   "id": "r-d06ca187fd05",
   "title": "Dimensional Chess C3: Full-State and Initial-Position Probe",
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   "type": "note",
   "project": "chess",
   "projects": [
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   "projectBasis": "Editorial topic association",
   "series": "dimensional-chess",
   "version": "3",
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   "date": "2026-09-15",
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   "statusBasis": "Its full-rule state engine is reused, not replaced; r-bc77a3eb88d2's verifier works \"using the audited legal-state engine\" and still reports the root interval unchanged.",
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    "text": "Does a complete FIDE-rule state engine plus an exact, heuristic-free interval probe from the starting position narrow the initial position's value?",
    "basis": "editorial"
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    "text": "All twenty root children retain $[-1,+1]$, so no initial move is yet legally ignorable.",
    "basis": "source"
   },
   "checks": {
    "text": "The verifier checks published reference counts from the official Stockfish perft suite.",
    "basis": "source",
    "sourceSection": "source-h-4"
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    "text": "Perft agreement is strong evidence for the tested move transitions. It is not a proof that every reachable state or every FIDE interpretation is correct.",
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    "text": "The most promising next experiment is to hide the known KRK and KQK tables, force an abstract interval engine to rediscover their values, and measure forcing dominance before exposing oracle labels.",
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   "abstract": {
    "text": "This checkpoint moves the project from isolated endgames to the orthodox initial position under the frozen FCS-2023 rules. It implements the complete move-state coordinates needed for legal play, passes six standard perft positions and ten targeted rule-transition tests, and then performs an exact four-ply interval probe from the normal starting position.",
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   "title": "Dimensional Chess C4: Constraint Waves and Human-Style Search",
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   "statusBasis": "r-192640670d05 states its own scoped result and no later record withdraws it: \"C4 validates constraint waves as informative coordinates in two complete endgames and independently verifies every emitted state bound.\"",
   "question": {
    "text": "Can a table-hidden 'constraint wave' of controlled squares, safe mobility and confinement prove endgame values while compressing the state graph?",
    "basis": "editorial"
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   "result": {
    "text": "Across the complete KRK and KQK universes, a constraint-wave signature proves every win/draw/loss value and gives sound mate-distance intervals.",
    "basis": "source"
   },
   "checks": {
    "text": "The bound phase receives legal transitions, terminal rules, the theorem that a lone black king cannot checkmate, and declared geometric features. It does not receive WDL or DTM labels. All variants and their intervals are frozen before the exact tablebases are opened for evaluation.",
    "basis": "source",
    "sourceSection": "source-h-4"
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   "limits": {
    "text": "A method that stores nearly one signature per position is a compressed tablebase, not a general solution to chess.",
    "basis": "source"
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    "text": "The next candidate quotient should group actions by equivalent constraint deltas: which lines open or close, which pieces become pinned or defended, which king regions split, and which replies disappear.",
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    "text": "The proposal that strong chess play is a changing wave of controlled squares, safe mobility, confinement, and opponent restriction is mathematically useful. Across the complete KRK and KQK universes, a constraint-wave signature proves every win/draw/loss value and gives sound mate-distance intervals.",
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   "title": "Dimensional Chess C5: Tension Fields and Tactical Entry Ordering",
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   "type": "note",
   "project": "chess",
   "projects": [
    "chess"
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   "series": "dimensional-chess",
   "version": "5",
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   "date": "2026-09-15",
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   "statusBasis": "r-9b58e8d87cb0 benchmarks against C5 rather than replacing it: \"C6 reduces nodes by 17.43% relative to C5 tension\".",
   "question": {
    "text": "Does an attacker/defender heat map of contested squares show where search should be spent, and is heat itself a measure of position quality?",
    "basis": "editorial"
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   "result": {
    "text": "Therefore global heat is neither an evaluation function nor a quantity to maximize or minimize. Heat selects where to calculate; adversarial legal replies determine what the move means.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
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   "limits": {
    "text": "The chosen fixture contains an immediate mate, so it tests bookkeeping and tactical focus, not broad playing strength.",
    "basis": "source"
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    "text": "A useful next lift would represent exchange chains as a dependency graph, because raw counts do not encode piece value, pins, move tempo, or the order in which defenders can actually recapture.",
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    "text": "The proposed attacker/defender heat map is a useful way to allocate search. It identifies where opposing geometric dependencies overlap, distinguishes raw interaction density from control imbalance, and orders tension-breaking entries before quiet alternatives. It does not establish that the hottest move is best.",
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   "id": "r-9b58e8d87cb0",
   "title": "Dimensional Chess C6: Legal Exchange Dependencies",
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   "type": "note",
   "project": "chess",
   "projects": [
    "chess"
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   "projectBasis": "Editorial topic association",
   "series": "dimensional-chess",
   "version": "6",
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   "date": "2026-09-15",
   "dateBasis": "saved",
   "declaredDates": [
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   "statusBasis": "C6's claim was scoped to its corpus; r-b7e0db547cd6 tests it at the initial position and finds the scope holds: \"C6's aggregate advantage on the eight-position tactical corpus therefore does not transfer to the initial-position negative-mate proof.\"",
   "question": {
    "text": "Does a legal capture–recapture dependency graph order an exact bounded mate search better than raw tension or a checks/captures baseline?",
    "basis": "editorial"
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   "result": {
    "text": "C6 reduces nodes by 17.43% relative to C5 tension and 4.43% relative to the forcing baseline.",
    "basis": "source"
   },
   "checks": {
    "text": "The independent verifier does not import the C6 module. Using only the separately tested orthodox move engine, it:",
    "basis": "source",
    "sourceSection": "source-h-6"
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   "limits": {
    "text": "Across individual positions, C6 beats forcing on three, ties on one, and loses on four. The aggregate win is real for this corpus but is not evidence of universal superiority.",
    "basis": "source"
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    "text": "Replace the optional single-square graph with a proof-carrying *forcing dependency graph* that may include checks, required evasions, captures on other squares, promotions, and quiet threats.",
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    "text": "C6 replaces raw attacker counts with a legal capture–recapture dependency graph on one contested square. The graph sees material values, recapture order, newly opened slider rays, king safety, and pins enforced by legal move generation. It is used only to order an exact bounded mate search.",
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   "id": "r-bc77a3eb88d2",
   "title": "Dimensional Chess C7: Horizon-Safe State Projection",
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   "type": "note",
   "project": "chess",
   "projects": [
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   "series": "dimensional-chess",
   "version": "7",
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   "date": "2026-09-15",
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   "declaredDates": [
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   "statusBasis": "r-709ba3d90a0c re-uses rather than replaces C7's theorem: \"This is a repeatable computation-allocation improvement, not a stronger game theorem. The independently verified nine-ply result was already established by C7.\"",
   "question": {
    "text": "Which history and clock coordinates can be dropped safely within a finite horizon, and does that let the start-position mate frontier reach nine plies?",
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   "result": {
    "text": "C7 proves a new finite statement and supplies a reusable state-quotient theorem: terminal-rule coordinates need be retained only when they can cross their threshold within the remaining horizon.",
    "basis": "source"
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   "checks": {
    "text": "The verifier imports no C7 solver code. It independently reconstructs the candidate prefix, defender draw actions, and AND/OR recurrence using the audited legal-state engine. It reproduces every reported result and all node, edge, cache, horizon, and terminal counts at depths seven and nine.",
    "basis": "source",
    "sourceSection": "source-h-8"
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    "text": "The quotient makes the computation feasible but does not remove exponential growth.",
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    "text": "A full solution needs proof-carrying lower and upper bounds that summarize large sets of continuations, together with a complete treatment of every terminal rule.",
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    "text": "From the orthodox initial position, neither White nor Black can force checkmate within nine plies: This extends the independently verified frontier from seven to nine plies. It does not determine whether chess is a win, draw, or loss under unlimited optimal play. The initial WDL interval therefore remains",
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  {
   "id": "r-709ba3d90a0c",
   "title": "Dimensional Chess C8: Movement-Frequency Relations",
   "titleBasis": "source",
   "type": "note",
   "project": "chess",
   "projects": [
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   "projectBasis": "Explicit project source citation",
   "series": "dimensional-chess",
   "version": "8",
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   "date": "2026-09-15",
   "dateBasis": "saved",
   "declaredDates": [
    "Date: 15 September 2026"
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   "statusBasis": "r-709ba3d90a0c is the last record of the chess line in the register and states where it stands: \"C8 still does not compress the game state or narrow the unbounded root interval\".",
   "question": {
    "text": "C8 tests the proposal that chess pieces exhibit reusable relational movement rhythms.",
    "basis": "source"
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   "result": {
    "text": "C8 tests the proposal that chess pieces exhibit reusable relational movement rhythms. A move is mapped to a class describing piece type, displacement, capture status, square-color phase, distance changes to both kings, geometric relations to both kings, edge-to-center motion, and home-relative rank phase. The learner records which defender classes terminate bounded mating claims in eight deterministic phase-shuffled five-ply searches. A later exact search orders defender moves by the frozen empirical score.",
    "basis": "source",
    "sourceSection": "source-h-2"
   },
   "checks": {
    "text": "The C8 result agrees with the separately implemented and independently verified C7 certificate that neither side can force mate within nine plies. A structural audit samples 960 deterministically reachable states and checks seven ordering schemes over 168,882 legal-move instances. Every ordered list is exactly a permutation of the corresponding legal list. Of the state/scheme cases, 6,720 actually change order, establishing that the test is not a lexical no-op. Audit status: PASS.",
    "basis": "source",
    "sourceSection": "source-h-7"
   },
   "limits": {
    "text": "The observed frequency is therefore role-specific, not a universal color-normalized law.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next frontier is a learned relation that carries a sound interval or a proof obligation.",
    "basis": "source"
   },
   "abstract": {
    "text": "C8 tests the proposal that chess pieces exhibit reusable relational movement rhythms. A move is mapped to a class describing piece type, displacement, capture status, square-color phase, distance changes to both kings, geometric relations to both kings, edge-to-center motion, and home-relative rank phase. The learner records which defender classes terminate bounded mating claims in eight deterministic phase-shuffled five-ply searches. A later exact search orders defender moves by the frozen empirical score.",
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   "id": "r-b7e0db547cd6",
   "title": "Dimensional Chess: Initial-Position Mate Frontier R1",
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   "type": "note",
   "project": "chess",
   "projects": [
    "chess"
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   "date": "2026-09-15",
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    "Date: 15 September 2026"
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   "question": {
    "text": "Can either side force checkmate from the orthodox initial position within seven plies, and does C6 dependency ordering make that proof cheaper?",
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   },
   "result": {
    "text": "Therefore neither White nor Black can force checkmate from the initial position within seven plies.",
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   },
   "checks": {
    "text": "A separate verifier imports no C6 code and uses lexical UCI move order. It independently recomputes the same bounded predicate.",
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    "sourceSection": "source-h-4"
   },
   "limits": {
    "text": "This does not determine whether perfect chess is a White win, draw, or Black win.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "the missing object is not another scalar heat score. It is a compact, transferable, independently checkable bound on all completions represented by an abstract dependency state.",
    "basis": "source"
   },
   "abstract": {
    "text": "The C6 dependency search was run on the actual orthodox initial position: The exact bounded AND/OR predicate returns false for both possible attackers at depth seven:",
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     "quote": "This extends the independently verified frontier from seven to nine plies.",
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   "id": "r-9f79fa0d0806",
   "title": "Dimensional Relational Closure Theory (DRCT) v1",
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   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
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   "seriesOrder": 1,
   "date": "2026-08-23",
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   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "Superseded as the series frontier by DRCT v2 (r-1abe41bc67c3), which extends v1 rather than withdrawing it: \"DRCT v1 answered:\" ... \"DRCT v2 answers the next inverse problem:\". Its theorems stay in force; v3 (r-17fae99d3cec) says v1's No-Information-From-Nothing Theorem \"is preserved exactly\".",
   "question": {
    "text": "When does a coarse observation of a deterministic system carry enough to predict its own future, how much is missing, and can history or new observables repair it?",
    "basis": "editorial"
   },
   "result": {
    "text": "Thirteen theorems for finite deterministic systems: a unique coarsest predictive closure, exact refinement convergence, an exact missing-bit bound, and a system where infinite history cannot repair the projection.",
    "basis": "editorial"
   },
   "checks": {
    "text": "Items 1–3 follow directly from equality of future observation sequences.",
    "basis": "source",
    "sourceSection": "source-h-6"
   },
   "limits": {
    "text": "It does **not** prove that physical reality is deterministic, nor that the universe implements DRCT.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Given the exact distinctions a descriptor erases, what must a new observable distinguish, and how can such a measurement be synthesised?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "1. Proved mathematical core — finite deterministic systems, plus explicit counterexamples outside that regime. 2. Established neighboring mathematics — partition refinement/bisimulation, automata future equivalence, lumpability, observability, Takens delay embeddings, computational mechanics. 3. DRCT research program — a proposed synthesis centered on residual-guided refinement of an insufficient observation until predictive closure.",
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-1abe41bc67c3",
   "title": "DRCT v2 — Closure-Defect Geometry and Observable Synthesis",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
   ],
   "projectBasis": "Editorial topic association",
   "series": "drct",
   "version": "2",
   "seriesOrder": 2,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "Superseded as frontier by DRCT v3 (r-17fae99d3cec), which takes v2's output as its starting wall: \"DRCT v2 produces an **abstract optimal observable**\". v2's theorems are reused, not withdrawn.",
   "question": {
    "text": "Given the pattern of predictive distinctions the current descriptor destroys, what must a new observable distinguish, and how can an ideal or library-limited measurement be synthesised?",
    "basis": "editorial"
   },
   "result": {
    "text": "Exact repair is a proper colouring of the closure-defect graph; the minimum alphabet is its chromatic number; repair from a sensor library is set cover, and uncovered edges certify the library insufficient.",
    "basis": "editorial"
   },
   "checks": {
    "text": "If \\(Q\\) repairs \\(Z\\), take a defect edge \\(\\{x,y\\}\\). By definition, \\(Z(x)=Z(y)\\) but \\(C_\\*(x)\\neq C_\\*(y)\\). If \\(Q(x)=Q(y)\\), the combined descriptor would still merge two predictive classes, contradicting repair. Thus every defect edge receives different \\(Q\\) values: \\(Q\\) is a proper coloring.",
    "basis": "source",
    "sourceSection": "source-h-6"
   },
   "limits": {
    "text": "Important: this constructs the **information content** of an ideal observable. It does not tell us whether the corresponding physical quantity is directly measurable.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "How can an abstract colour label become a physically executable measurement without knowing what the hidden coordinate means?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "> When is a projected state dynamically sufficient, how much predictive > information is missing, and can path/history repair it?",
    "basis": "editorial"
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   "id": "r-17fae99d3cec",
   "title": "DRCT v3 — Semantic-Free Operational Observable Bridge",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
   ],
   "projectBasis": "Editorial topic association",
   "series": "drct",
   "version": "3",
   "seriesOrder": 3,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "Superseded as frontier by DRCT v4 (r-b590d28cd189), which removes v3's reliance on hidden-state labels: \"DRCT v1–v3 assumed the mathematical analysis could refer to complete states\".",
   "question": {
    "text": "Can an abstract separating label be turned into an executable measurement or probe without first naming the hidden coordinate it stands for?",
    "basis": "editorial"
   },
   "result": {
    "text": "It proves that **semantic hidden coordinates are not mathematically required for operational predictive closure** when an executable measurement/probe family has the required separation power.",
    "basis": "source"
   },
   "checks": {
    "text": "Necessity: if a defect pair has equal output under every primitive measurement, then every finite vector of those measurements is also equal on the pair and cannot repair it.",
    "basis": "source",
    "sourceSection": "source-h-6"
   },
   "limits": {
    "text": "This idea is closely related to active observability, discerning controls, system identification and optimal experimental design; DRCT does not claim to invent active probing.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Can predictive classes and defect pairs be reconstructed from observable histories and future tests alone, without hidden-state labels?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "DRCT v2 produces an abstract optimal observable \\(Q^\\dagger\\): a class label whose only guaranteed meaning is that it separates closure-defect pairs.",
    "basis": "editorial"
   },
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  {
   "id": "r-b590d28cd189",
   "title": "DRCT v4 — Blind Predictive Closure Reconstruction",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
   ],
   "projectBasis": "Editorial topic association",
   "series": "drct",
   "version": "4",
   "seriesOrder": 4,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "Superseded as frontier by DRCT v5 (r-ab7a8225476b): \"DRCT v1–v4 used exact equality of future behavior in finite deterministic systems.\" ... \"Exact future-word equality is therefore the wrong primitive.\" (for noisy physical data).",
   "question": {
    "text": "Can the predictive quotient and its defect graph be rebuilt purely from experiments on observable histories, with no hidden-state labels?",
    "basis": "editorial"
   },
   "result": {
    "text": "Thus the predictive quotient is exactly reconstructible from observable experiments alone.",
    "basis": "source"
   },
   "checks": {
    "text": "This is the controlled deterministic Myhill–Nerode construction.",
    "basis": "source",
    "sourceSection": "source-h-7"
   },
   "limits": {
    "text": "No finite passive corpus can generally prove that an unseen continuation or hidden state does not exist.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "What does closure mean for one noisy, continuous, non-resettable stream, where exact equality of futures is unrealistic?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "DRCT v1–v3 assumed the mathematical analysis could refer to complete states \\(x,y\\) when defining predictive closure and defect edges.",
    "basis": "editorial"
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-ab7a8225476b",
   "title": "DRCT v5 — Statistical Closure From One Noisy Continuous Stream",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
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   ],
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   "series": "drct",
   "version": "5",
   "seriesOrder": 5,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in drct",
   "question": {
    "text": "What does predictive closure mean for a single noisy, continuous stream with no reset and no known bound on hidden states?",
    "basis": "editorial"
   },
   "result": {
    "text": "Closure means no *additional past information* improves the future law; it does not mean the future itself must be deterministic.",
    "basis": "source"
   },
   "checks": {
    "text": "Therefore a descriptor can appear closed at one horizon and fail at a deeper future horizon.",
    "basis": "source",
    "sourceSection": "source-h-8"
   },
   "limits": {
    "text": "An untested future event, rare regime, inaccessible sensor or insufficient estimator may still reveal a defect.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Can closure tools reconstruct a real trained system, such as a small transformer, from black-box queries, and what remains unidentifiable?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "DRCT v1–v4 used exact equality of future behavior in finite deterministic systems.",
    "basis": "editorial"
   },
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-1becea26408c",
   "title": "DRCT v9 — Predict-Before-Reveal Causal Query Complexity",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
   ],
   "projectBasis": "Editorial topic association",
   "series": "drct",
   "version": "9",
   "seriesOrder": 6,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in drct",
   "question": {
    "text": "How many interventions are needed to recover a component interaction table, and can predictions for unseen interventions be frozen before scoring?",
    "basis": "editorial"
   },
   "result": {
    "text": "In DRCT language, causal interaction order is an intervention closure depth.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "The 167-word note states the method and an anti-vacuity rule but reports no measured residuals; the five-component experiment's outputs are not in the register.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "With direct access to module inputs and outputs, can every parameter of the transformer be identified exactly?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "For a fixed input and output coordinate, an m-component intervention table is a set function f: 2^[m] -> R with a unique Möbius expansion",
    "basis": "editorial"
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  {
   "id": "r-b6069be05c7f",
   "title": "DRCT v10 — Exact Module Tomography and the Observability Ladder",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
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   "projectBasis": "Editorial topic association",
   "series": "drct",
   "version": "10",
   "seriesOrder": 7,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in drct",
   "question": {
    "text": "What operational interface is sufficient to recover every parameter of a known transformer architecture exactly?",
    "basis": "editorial"
   },
   "result": {
    "text": "For the known transformer architecture, an operational interface exposing each parameterized module's input/output map is sufficient to recover all 1428 scalar parameters.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "This is not a claim that ordinary hosted LLM APIs expose module tomography. They do not. It is a theorem about sufficient experimental access.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Which internal operators are fixed when only some internal measurement ports exist, and what remains a gauge freedom?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "For the known transformer architecture, an operational interface exposing each parameterized module's input/output map is sufficient to recover all 1428 scalar parameters.",
    "basis": "editorial"
   },
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     "basis": "reading (verified)"
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   "id": "r-8f54278510af",
   "title": "DRCT v11 — Gauge, Measurement Ports, and Identifiable Subspaces",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
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   "series": "drct",
   "version": "11",
   "seriesOrder": 8,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in drct",
   "question": {
    "text": "Which internal operators of a layered linear mechanism are fixed by input/output behaviour, and what does adding one internal measurement port fix?",
    "basis": "editorial"
   },
   "result": {
    "text": "Thus a single internal measurement port plus spanning experiments makes both operators individually identifiable in the port's chosen coordinate system.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "Values outside the reachable subspace are not determined by the experiment.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "How should an automated scientist choose the cheapest sequence of experiments that removes the remaining gauge ambiguity?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "For every invertible hidden-coordinate transform \\(S\\),",
    "basis": "editorial"
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  {
   "id": "r-9a6ff68abec1",
   "title": "DRCT v12 — Autonomous Experimental Scientist",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
   ],
   "projectBasis": "Editorial topic association",
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   "statusBasis": "Superseded as frontier by DRCT v13 (r-a76d46a48686): \"This is a continuous analogue of the v12 finite hypothesis-class planner.\"",
   "question": {
    "text": "How should a finite set of candidate mechanisms be narrowed by choosing experiments by information per cost, and when must the experimental language be enlarged?",
    "basis": "editorial"
   },
   "result": {
    "text": "One external probe that separates all 12 candidate \\(C\\)'s plus two linearly independent internal probes identifies \\(C\\) and \\(S\\) exactly, achieving that lower bound.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "This is standard Bayesian experimental-design / active-learning mathematics.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "When the mechanism parameter is continuous, can the next experiment be derived rather than chosen from a finite list?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "Let \\(\\Theta\\) be a finite set of viable mechanisms and let experiment \\(e\\) produce outcome \\(Y_e\\).",
    "basis": "editorial"
   },
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     "id": "r-8f54278510af",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-a76d46a48686",
   "title": "DRCT v13 — Continuous Model Manifold and Invented Experiments",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
   ],
   "projectBasis": "Editorial topic association",
   "series": "drct",
   "version": "13",
   "seriesOrder": 10,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in drct",
   "question": {
    "text": "When the unknown mechanism is continuous, can the next experiment direction be derived rather than selected from a pre-enumerated list?",
    "basis": "editorial"
   },
   "result": {
    "text": "Thus the next experiment direction is **derived continuously** rather than selected from a pre-enumerated list.",
    "basis": "source"
   },
   "checks": {
    "text": "The predictive outcome is Gaussian with variance",
    "basis": "source",
    "sourceSection": "source-h-4"
   },
   "limits": {
    "text": "This is not metaphysical certainty. It is posterior closure relative to a declared experimental resolution.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Can the sensor itself be synthesised as a compact executable equation over primitive measurement channels?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "Let the unknown mechanism parameter be continuous: with Gaussian posterior",
    "basis": "editorial"
   },
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     "id": "r-9a6ff68abec1",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-341d6e48b548",
   "title": "DRCT v14 — Symbolic Sensor Equation Synthesis",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
   ],
   "projectBasis": "Editorial topic association",
   "series": "drct",
   "version": "14",
   "seriesOrder": 11,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in drct",
   "question": {
    "text": "What is the smallest executable expression over primitive channels that closes prediction, and how does closure depend on the expression grammar?",
    "basis": "editorial"
   },
   "result": {
    "text": "The synthesized equation does not create information. Its purpose is to find a compact, executable scalar statistic that preserves the predictively relevant information already available in the primitive transduction channels.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "This is closure relative to an executable expression language, not a statement that the expression is ontologically unique.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "When exhaustive search of the grammar leaves a residual, can the missing operation itself be invented?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "and let \\(\\mathcal G_d\\) be the set of physically executable scalar expressions generated by a fixed operator grammar with complexity at most \\(d\\).",
    "basis": "editorial"
   },
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-7a6adf9e99db",
   "title": "DRCT v15 — Operator Invention From Closure Residuals",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
   ],
   "projectBasis": "Editorial topic association",
   "series": "drct",
   "version": "15",
   "seriesOrder": 12,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "Superseded as frontier by DRCT v16 (r-2ab60a5f99b1): \"v15 assumed that the missing primitive was binary.\"",
   "question": {
    "text": "When an exhaustively searched additive grammar cannot close prediction, can the semantics of an unknown binary operation be inferred from predictive constraints?",
    "basis": "editorial"
   },
   "result": {
    "text": "If every table cell is consistently determined, a new operation has been operationally synthesized.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "It does not prove that an unconstrained machine can invent arbitrary mathematics from no prior representational assumptions.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "That remaining meta-language is the next boundary.",
    "basis": "source"
   },
   "abstract": {
    "text": "Let \\((A,+)\\) be an already available algebraic language and let \\(M_1,M_2,M_3\\) be primitive measured coordinates.",
    "basis": "editorial"
   },
   "ledFrom": [
    {
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   ],
   "ledTo": [
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     "id": "r-2ab60a5f99b1",
     "basis": "series order (mechanical)"
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   "source": {
    "url": "archive/7a6adf9e99db-THEORY_V15.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-2ab60a5f99b1",
   "title": "DRCT v16 — Ontology / Arity Discovery",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
   ],
   "projectBasis": "Editorial topic association",
   "series": "drct",
   "version": "16",
   "seriesOrder": 13,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in drct",
   "question": {
    "text": "Without assuming the missing relation is binary, can a learner infer the minimum arity and scope of a new relation from data?",
    "basis": "editorial"
   },
   "result": {
    "text": "Then \\(r^\\star\\) is the minimum relational arity required for predictive closure relative to the supplied meta-language and measurement coordinates.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "The remaining wall is the meta-language itself: v16 still assumes that useful new concepts are representable as finite relations plus affine composition.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Does a relation invented in one world recur across independent worlds strongly enough to become a reusable concept?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "v15 assumed that the missing primitive was binary.",
    "basis": "editorial"
   },
   "ledFrom": [
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     "basis": "series order (mechanical)"
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    "url": "archive/2ab60a5f99b1-THEORY_V16.md",
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-515974945d3b",
   "title": "DRCT v17 — Transferable Concept Invention",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
   ],
   "projectBasis": "Editorial topic association",
   "series": "drct",
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   "seriesOrder": 14,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "Superseded as frontier by DRCT v18 (r-2aeab23576cd): \"v17 learned a reusable concept only after being told which transformations should count as superficial coordinate changes.\"",
   "question": {
    "text": "When does a relation invented in one world earn promotion to a reusable concept that transfers to unseen worlds and is rejected where irrelevant?",
    "basis": "editorial"
   },
   "result": {
    "text": "Sets a five-part promotion test for invented concepts: recurrence, net description-length gain, freezing, prospective transfer and negative-control rejection. The record reports no outcome figures.",
    "basis": "editorial"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "the equivalence group used to decide when two relations count as the same concept is supplied rather than learned.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Can the rule for when two relation tables count as the same concept be learned instead of supplied?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "A one-world macro is not yet a reusable concept.",
    "basis": "editorial"
   },
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-2aeab23576cd",
   "title": "DRCT v18 — Learning the Equivalence Relation Between Concepts",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
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   "projectBasis": "Editorial topic association",
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   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "Superseded as frontier by DRCT v19 (r-6692434a8200): \"v18 assumed named transformation slots such as row, column and output permutations.\"",
   "question": {
    "text": "Can a learner infer which coordinate relabellings count as the same concept, instead of being told?",
    "basis": "editorial"
   },
   "result": {
    "text": "The minimum-description rule identifies which coordinate transformations are actually shared.",
    "basis": "source"
   },
   "checks": {
    "text": "Reflexive: the identity \\(e\\in G\\) gives \\(T=e\\cdot T\\).",
    "basis": "source",
    "sourceSection": "source-h-7"
   },
   "limits": {
    "text": "The remaining prior is now narrower: v18 still supplies the primitive notion that candidate coordinate changes are finite label permutations",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Can transformations be recovered without named slots such as rows, columns or outputs, from anonymous states alone?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "v17 learned a reusable concept only after being told which transformations should count as superficial coordinate changes.",
    "basis": "editorial"
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   "ledFrom": [
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    "authorBasis": "Collection attribution; original record retains its own credits"
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   "id": "r-6692434a8200",
   "title": "DRCT v19 — Transformation-Generator Invention",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
    "drct"
   ],
   "projectBasis": "Editorial topic association",
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   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "Superseded as frontier by DRCT v20 (r-d0801d0f81e1): \"v19 assumed that the map connecting two worlds is a bijection.\"",
   "question": {
    "text": "Given only anonymous finite states across worlds, can the transformations relating them and their generators be recovered and shown to predict unseen worlds?",
    "basis": "editorial"
   },
   "result": {
    "text": "The two nontrivial recovered permutations generate eight transformations in total, five of which were never directly observed.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "It is allowed one remaining meta-assumption: two worlds may be related by an unknown bijection of their finite state sets.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next boundary is therefore sharper: infer the *class of admissible map* itself — bijection, many-to-one quotient, continuous deformation, stochastic kernel, etc. — rather than assuming bijectivity.",
    "basis": "source"
   },
   "abstract": {
    "text": "v18 assumed named transformation slots such as row, column and output permutations.",
    "basis": "editorial"
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   "ledFrom": [
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     "basis": "series order (mechanical)"
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  {
   "id": "r-d0801d0f81e1",
   "title": "DRCT v20 — Morphism-Type Invention",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "drct",
   "projects": [
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   "projectBasis": "Editorial topic association",
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   "version": "20",
   "seriesOrder": 17,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "Superseded as frontier by DRCT v21 (r-519566f74c0d): \"v20 supplied a menu:\" of morphism classes, which v21 removes.",
   "question": {
    "text": "Can the type of map connecting two worlds be selected from data among bijection, injection, surjection, function and stochastic kernel?",
    "basis": "editorial"
   },
   "result": {
    "text": "The residual therefore determines which morphism class must be admitted.",
    "basis": "source"
   },
   "checks": {
    "text": "For deterministic laboratories, source and target dynamics satisfy",
    "basis": "source",
    "sourceSection": "source-h-4"
   },
   "limits": {
    "text": "v20 does not invent map classes from an unrestricted universe. It selects among a supplied morphism hierarchy.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next boundary is therefore the hierarchy itself: infer whether a new map class should exist, rather than selecting from",
    "basis": "source"
   },
   "abstract": {
    "text": "v19 assumed that the map connecting two worlds is a bijection.",
    "basis": "editorial"
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   "title": "DRCT v21 — Morphism Ontology Induction",
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    "text": "Without a supplied menu of map classes, can a learner induce a morphism ontology from raw count tables and generic degree predicates?",
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    "text": "v21 breaks the fixed morphism-class menu, but it does not create ontology from literally nothing.",
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    "text": "The next wall is therefore to invent the structural predicates used to describe relations, rather than supplying degree constraints in advance.",
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    "text": "- bijection; - injection; - surjection; - unrestricted function; - stochastic kernel.",
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   "id": "r-d4ca6f5515b8",
   "title": "DRCT Black-Box Transformer Stress Test v6",
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    "text": "How much of a small trained transformer can be reconstructed from next-token logit queries alone, without access to its parameters?",
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    "text": "Therefore the resulting lookup clone is an exhaustive functional reconstruction on this finite domain, not a sampled approximation.",
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    "text": "A trained two-head causal transformer was hidden behind a logit-query oracle.",
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    "text": "This demonstrates why black-box behavior cannot uniquely identify raw internal weights without quotienting parameter symmetries.",
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    "text": "What experimental access beyond logits, such as component interventions or module probes, would make internal operators identifiable?",
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    "text": "Does the DRCT v4 blind reconstruction recover the hidden predictive quotient of every deterministic 3-state binary Moore system from input/output queries alone?",
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    "text": "A bare pass log: it covers only 3-state binary-input/binary-output Moore systems from one reset state and contains no code, timings or failure cases.",
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    "text": "Does the reconstruction hold for more hidden states or noisy observations, the setting DRCT v5 takes up in the drct-p3 cluster?",
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    "text": "EXHAUSTIVE PASS: 5832 deterministic 3-state binary-input/binary-output Moore systems Verified: hidden-free history/test signature reconstruction recovered class count equals hidden predictive quotient recovered observable machine reproduces all tested traces finite N-1 exploration/test bound",
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   "title": "Element Projection Lab 0.6.0: ATLAS publication-level dimension-evidence audit",
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    "text": "Does the published ATLAS periodic dielectron/diphoton search pass the programme's necessary cross-channel evidence screen for a physical extra dimension?",
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    "text": "The primary cross-channel rule fails, the conservative familywise rule fails, and ATLAS's model-dependent analysis separately reports no significant deviation from the background-only hypothesis.",
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    "text": "- Written mathematics: standard-normal survival probabilities and Bonferroni familywise control. - Finite computation: deterministic replay of eight published signed significances and three constructed controls. - Measured evidence: the ATLAS publication's collision-data summary and model-dependent null conclusion. - Hypothesis: a locked dimensional tower could produce correlated excesses with predicted masses, widths, spins, couplings, and channel ratios. - Theological interpretation: not tested or identified.",
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    "text": "The publication and its null conclusion were known before the protocol. It therefore cannot become blind or preregistered by being frozen now.",
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    "text": "Then freeze one complete tower model before genuinely independent future collision data are opened.",
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    "text": "The published ATLAS periodic dielectron/diphoton search does not pass the project's necessary cross-channel evidence screen for a physical extra dimension.",
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    "text": "Does the borrowed CW/LD benchmark k=500 GeV, M5=6000 GeV survive all four published ATLAS observed exclusion contours?",
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    "text": "The unchanged CW/LD benchmark `k=500 GeV`, `M5=6000 GeV` lies on the excluded side of all four published observed contours.",
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    "text": "The archive has 26 members: one directory and 25 YAML files, comprising submission metadata and 24 contour tables with 1,978 coordinate pairs. All 24 curves have a unique intersection at k=500 GeV.",
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    "text": "It does not invalidate the conditional tower arithmetic, exclude all extra-dimensional models, or identify the cause of any discrepancy.",
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    "text": "The next bounded test is an explicitly exploratory map of the published parameter domain, preserving folds, source coverage and the non-perturbative boundary.",
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    "text": "The unchanged CW/LD benchmark k=500 GeV, M5=6000 GeV lies on the excluded side of all four published observed contours. Each is a 95% CL result within its own ATLAS channel and threshold scenario. This report does not calculate a combined confidence level or claim independent experimental replication.",
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    "text": "Can the four ATLAS contours be explored away from the benchmark without silently forcing one answer where the contours fold or overlap?",
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   "result": {
    "text": "This is a counterexample to silently choosing one Table 1 intersection or forcing the four views into one answer.",
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    "text": "All 48,396 grid classifications and 2,916 off-grid classifications (729 probe records, 712 distinct coordinates, each checked in four tables) agree with an independent source-decimal exact-rational implementation. Maximum displayed-boundary discrepancy is 3e-12 GeV; a 1e-8 GeV tolerance is used only for float serialization, never to compare classifications or interpret experimental precision. The independent audit passes 54,586 checks, including 20 synthetic controls. All 162 unit tests pass, including all 120 prior tests and 42 new engine/view tests.",
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    "text": "A regular grid alone therefore does not establish global contour topology.",
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    "text": "Next bounded test: implement an explicitly labelled detector-response interface and injected-signal closure test.",
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    "text": "Can a fixed detector response and an injected-signal closure test recover a known signal strength, and what can a wrong efficiency hide?",
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    "text": "The counterexample is stronger than a poor fit: a wrong global efficiency can give an exactly identical fit with a wrong source strength.",
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    "text": "- All 192 unit tests pass, including 30 new response/protocol tests. - Independent scalar audit: 1,231,728 checks, zero failures; 9,384 response entries, 552,000 Poisson counts and 18,000 fitted strengths. - It imports no production module: Gaussian integrals use math.erf, sums use math.fsum, and a safeguarded scalar Newton solver replaces production vectorized bisection. Count replay uses the same specified NumPy PCG64 algorithm; it is reproducibility checking, not an independent randomness experiment. Maximum matrix difference is 1.39e-16 and maximum fitted-strength difference is 7.96e-13.",
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    "text": "A good fit cannot uniquely identify hidden particles, extra dimensions, a universal grid/tick, or theological causes.",
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    "text": "Next bounded test: add an independent synthetic efficiency-calibration sample, derive how its finite uncertainty constrains the signal-strength/efficiency degeneracy, then validate under a new frozen protocol and fresh histories.",
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    "text": "Theory revision 1.73. Evidence class: written conditional mathematics and finite synthetic computation. No new measured data or detector calibration.",
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   "title": "Crystal periodic table and sunlight — Element Projection Lab 0.13.0",
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    "text": "What is the minimal geometric object of a crystal, and can measured optical constants under sunlight reconstruct the colours of bulk metals?",
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    "text": "Their normalized primitive Gram matrices are identical; their measured-input reflectances are not.",
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    "text": "All 218 unit tests pass: 192 previous tests and 26 new geometry, optics and view tests. The optics tests include 2,156 independently evaluated scalar Fresnel comparisons over the 539 original n,k rows and four incidence angles. All 67 supplied bases pass a finite redundant-translation check and boundary sharing sums; a deliberately nonprimitive conventional BCC basis is rejected as redundant. The Canvas/interaction smoke test passes 633 checks, including all element selections and 320/736-pixel drawing sizes. The complete browser CSS layout has not been validated because a local browser binary is absent; Canvas previews and the static poster were visually inspected.",
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    "text": "A model that takes n,k from measurements has reconstructed color; it has not yet predicted n,k from our geometric hypothesis.",
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    "text": "choose one specific phase and surface, specify an electronic Hamiltonian/response calculation, freeze its dielectric prediction, then compare with an independent reflectance dataset.",
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    "text": "Theory revision 1.74. The atlas now has 118 element entries, 67 compiled primitive crystal cells, and 11 measured-input bulk optical reconstructions. It includes a rotatable offline table, a full PNG/SVG poster, a 27-cell repeat view, and a separate mathematical 4D-shadow view.",
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    "text": "How should the crystal display be corrected so that cell cages no longer hide differences in physical size and local arrangement?",
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    "text": "Giving each a unique decorative solid would introduce a false difference.",
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    "text": "Independent replay verified 673 neighbor positions over all 67 environments. Maximum position difference was 0 Å, and maximum distance difference was 4.44e-16 Å. It verified that all 118 original records and optical values are unchanged and that all 51 unavailable environments remain null. Ten new regression tests cover representative structures, nonideal HCP, skew cells, changes of primitive basis, rotations, origin shifts, and invalid inputs. The completed full regression run passed all 228 tests. Its authoritative log is outputs/release_0.13.1_test_log_retry.txt; the earlier log ended without a summary and is retained but is not counted as a completed run.",
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    "text": "This patch corrects the display without claiming new data coverage.",
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    "text": "The incomplete entries require sourced phase-specific lattice vectors and atomic bases before they can be added.",
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    "url": "archive/5860aee36113-RESULTS_0.13.1.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-33deacfda028",
   "title": "Element reference completion — Lab 0.14.0",
   "titleBasis": "source",
   "type": "report",
   "project": "elements",
   "projects": [
    "elements"
   ],
   "projectBasis": "Editorial topic association",
   "series": "element-projection-lab",
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   "date": "2026-09-21",
   "dateBasis": "saved",
   "declaredDates": [
    "Date: 21 September 2026. This release expands the current crystal table using"
   ],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in element-projection-lab",
   "question": {
    "text": "How far can source-backed references extend element properties, crystal cells and optical constants without inventing missing data?",
    "basis": "editorial"
   },
   "result": {
    "text": "Complete reference crystal cells rose from 67 to 90 and elements with optical constants from 11 to 30; 28 atomic-coordinate gaps remain and are listed.",
    "basis": "editorial"
   },
   "checks": {
    "text": "All 259 unit tests passed, including the 228 previous tests. Independent raw-CIF reconstructions checked 10 light-region phase records (including the two alternatives), nine middle-region cells and six heavy-region cells. The middle audit additionally confirms 1,793 periodic site comparisons in the integrated data. Independent scalar optics reproduced 7,619 reflectances, 15,238 interpolated n/k values and 38 Sun/D65 colors. All hex colors matched; maximum reflectance discrepancy was 6.67e-16. All 11 original optical records and 67 original crystal geometries remained unchanged.",
    "basis": "source",
    "sourceSection": "source-h-6"
   },
   "limits": {
    "text": "It does not predict optical constants from a crystal shape.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Next: retrieve the remaining primary numeric crystal records for Pm, Rn and transplutonium metals; then add phase-matched optical constants and uncertainty before comparing reconstructed colors against independent measured spectra.",
    "basis": "source"
   },
   "abstract": {
    "text": "The 226 null property fields include 34 elements for which CIAAW assigns no standard atomic weight; these are marked not defined, not zero mass or an ordinary missing measurement. Other blanks mean this source snapshot does not supply a value. All 118 identities and property records are present, but this is not a claim that all properties of all elements have been measured.",
    "basis": "editorial"
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    "url": "archive/33deacfda028-RESULTS_0.14.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
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    "authorBasis": "Collection attribution; original record retains its own credits"
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   "attachments": []
  },
  {
   "id": "r-a00a6dab1f40",
   "title": "Crystal wave observer — Element Projection Lab 0.15.0",
   "titleBasis": "source",
   "type": "report",
   "project": "elements",
   "projects": [
    "elements"
   ],
   "projectBasis": "Explicit project source citation",
   "series": "element-projection-lab",
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   "date": "2026-09-21",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "mechanical v0: latest recovered release in element-projection-lab",
   "question": {
    "text": "Which constructive and destructive interference patterns follow from the frozen crystal coordinates alone, and can the geometry be checked against a certified reference?",
    "basis": "editorial"
   },
   "result": {
    "text": "All available phases have no nonzero atomic Bragg shell accessible in the stated 380–780 nm visible band.",
    "basis": "source"
   },
   "checks": {
    "text": "The model is elastic, coherent, kinematic scattering from identical points. It omits element-dependent atomic form factors, thermal displacement, absorption, multiple scattering, texture, background and instrument response. Consequently the displayed weights are geometry-only interference weights, not calibrated detector counts or material-color predictions. A real diffraction measurement can require physics that the point model omits.",
    "basis": "source",
    "sourceSection": "source-h-6"
   },
   "limits": {
    "text": "It omits element-dependent atomic form factors, thermal displacement, absorption, multiple scattering, texture, background and instrument response.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Next bounded test: add element-dependent scattering factors and an explicit instrument response, then reserve an independent measured powder intensity profile for validation.",
    "basis": "source"
   },
   "abstract": {
    "text": "21 September 2026. The new observer calculates constructive and destructive interference from the frozen crystal coordinates. Earlier atomic properties, crystal phases, optical constants and color reconstructions are unchanged.",
    "basis": "editorial"
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     "basis": "reading (verified)",
     "quote": "The element selector retains all 118 identities, 92 available crystal phases and 30 sourced optical datasets.",
     "quoteFrom": "r-c60f72e23a0b"
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    "url": "archive/a00a6dab1f40-RESULTS_0.15.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
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     "basis": "file name appears in the document text"
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   ]
  },
  {
   "id": "r-bb51103f7acd",
   "title": "Element Projection Lab claim ledger",
   "titleBasis": "source",
   "type": "claim-ledger",
   "project": "elements",
   "projects": [
    "elements"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-20",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "Element claim ledger snapshot E-001 to E-035, covering releases 0.1-0.6 only; later releases mention \"append-only claim ledger updates\" (r-fe6d26d12295) but no later ledger is in the corpus.",
   "question": {
    "text": "Which element-lab claims from releases 0.1 to 0.6 are established, checked, refuted or unsupported?",
    "basis": "editorial"
   },
   "result": {
    "text": "Au and Ag are both group-11 noble metals with filled d shells plus one s electron and ordinary fcc bulk structure, yet their measured visible reflectances differ strongly.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "Independent evidence begins only when the unchanged frozen evaluator is applied to a separate measurement series.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "A future evidence claim must freeze before genuinely independent data are opened and retain a full calibrated statistical model.",
    "basis": "source"
   },
   "abstract": {
    "text": "Provenance: release 0.1.0 adds the all-118 compiled atlas, exact angular distinction, Slater radial proxy, interactive observer builder, static audit figure, eleven production tests, and a thirteen-check independent audit. It does not alter Hydrogen Matrix Lab 0.8.0, RRLS, or earlier negative results.",
    "basis": "editorial"
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    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/The Theory of Reality/Element Projection Lab/CLAIM_LEDGER.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
   },
   "attachments": []
  },
  {
   "id": "r-634ff256fff3",
   "title": "release 0.3 test log",
   "titleBasis": "source",
   "type": "test-log",
   "project": "elements",
   "projects": [
    "elements"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-20",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "Test log labelled release 0.3 of the Element Projection Lab; later log r-49a533cb5852 is complete.",
   "question": {
    "text": "Do the element-lab unit tests pass at release 0.3?",
    "basis": "editorial"
   },
   "result": {
    "text": "test_two_measured_material_tables (test_noble_metal_optics.NobleMetalOpticsTests.test_two_measured_material_tables) ... ok",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "The log lists only 19 tests from releases 0.1 and 0.2, has no summary line, and omits the nine band-response tests release 0.3 is said to add.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "Is a complete release-0.3 log, including the band-response tests, recoverable?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "test_all_118_present (test_element_projection_atlas.ElementAtlasTests.test_all_118_present) ... ok test_atlas_radial_normalization (test_element_projection_atlas.ElementAtlasTests.test_atlas_radial_normalization) ... ok test_closed_subshell_addition_theorem (test_element_projection_atlas.ElementAtlasTests.test_closed_subshell_addition_theorem) ... ok test_density_rank_boundary (test_element_projection_atlas.ElementAtlasTests.test_density_rank_boundary) ... ok test_electron_counts_and_capacities (test_element_projection_atlas.ElementAtlasTests.test_electron_counts_and_capacities) ...",
    "basis": "editorial"
   },
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   "ledTo": [],
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    "url": "archive/634ff256fff3-release_0.3_test_log.txt",
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    "access": "public",
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   "provenance": {
    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/The Theory of Reality/Element Projection Lab/release_0.3_test_log.txt",
    "authorBasis": "Collection attribution; original record retains its own credits"
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   "attachments": []
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  {
   "id": "r-49a533cb5852",
   "title": "release 0.4 test log",
   "titleBasis": "source",
   "type": "test-log",
   "project": "elements",
   "projects": [
    "elements"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-20",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "Complete test log for element release 0.4. Quote: \"Ran 36 tests in 0.819s\"",
   "question": {
    "text": "Do the element-lab tests, including the frozen band-response contract, pass at release 0.4?",
    "basis": "editorial"
   },
   "result": {
    "text": "Ran 36 tests in 0.819s",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "Software tests only: they check the freeze contract, hashes and replay, not any new physical measurement.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "Will the frozen evaluator be applied unchanged to a separate measurement series?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "test_all_118_present (test_element_projection_atlas.ElementAtlasTests.test_all_118_present) ... ok test_atlas_radial_normalization (test_element_projection_atlas.ElementAtlasTests.test_atlas_radial_normalization) ... ok test_closed_subshell_addition_theorem (test_element_projection_atlas.ElementAtlasTests.test_closed_subshell_addition_theorem) ... ok test_density_rank_boundary (test_element_projection_atlas.ElementAtlasTests.test_density_rank_boundary) ... ok test_electron_counts_and_capacities (test_element_projection_atlas.ElementAtlasTests.test_electron_counts_and_capacities) ...",
    "basis": "editorial"
   },
   "ledFrom": [],
   "ledTo": [],
   "source": {
    "url": "archive/49a533cb5852-release_0.4_test_log.txt",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/The Theory of Reality/Element Projection Lab/release_0.4_test_log.txt",
    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-c60f72e23a0b",
   "title": "Single atoms, wave crossings and pure crystal geometry",
   "titleBasis": "source",
   "type": "report",
   "project": "elements",
   "projects": [
    "elements"
   ],
   "projectBasis": "Explicit project source citation",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-21",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "Latest Element Projection Lab release in the corpus: \"Element Projection Lab 0.16.0 · 21 September 2026\"",
   "question": {
    "text": "How can single atoms, wave crossings and crystal faces be displayed together while each channel states exactly what its geometry means?",
    "basis": "editorial"
   },
   "result": {
    "text": "Open outputs/atom_crystal_observer.html. It works offline. The initial scene is a single hydrogen atom in a specified coherent state. Quick selections also show diamond carbon's local tetrahedron and a chosen faceted gold specimen. The element selector retains all 118 identities, 92 available crystal phases and 30 sourced optical datasets. Missing crystal coordinates and optical data remain visibly unavailable. One hydrogen crystal phase is a DFT prediction at 300 GPa, explicitly labeled; it is not ambient-pressure hydrogen.",
    "basis": "source",
    "sourceSection": "source-record"
   },
   "checks": {
    "text": "Seven new unit groups verify all 92 phase-coordinate records, known neighbor polyhedra, oriented hull volumes and Euler topology, compatibility with the previous nearest-site environments, hydrogen normalization/orthogonality, normal-incidence color preservation and graphite's planar-shell boundary.",
    "basis": "source",
    "sourceSection": "source-h-7"
   },
   "limits": {
    "text": "Bulk tint on a chosen hull does not satisfy that gate.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "acquire sourced surface energies to predict an equilibrium habit, then use a suitable phase- and size-matched electromagnetic response and compare a frozen prediction with independent microscopy and optical data.",
    "basis": "source"
   },
   "abstract": {
    "text": "Open outputs/atom_crystal_observer.html. It works offline. The initial scene is a single hydrogen atom in a specified coherent state. Quick selections also show diamond carbon's local tetrahedron and a chosen faceted gold specimen. The element selector retains all 118 identities, 92 available crystal phases and 30 sourced optical datasets. Missing crystal coordinates and optical data remain visibly unavailable. One hydrogen crystal phase is a DFT prediction at 300 GPa, explicitly labeled; it is not ambient-pressure hydrogen.",
    "basis": "editorial"
   },
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     "basis": "reading (verified)"
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   "source": {
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   "provenance": {
    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/Atom_Crystal_Observer_Method.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-4d0f85755df4",
   "title": "RRLS v0.27 — Dimensional Future Compiler",
   "titleBasis": "source",
   "type": "report",
   "project": "filaments",
   "projects": [
    "filaments"
   ],
   "projectBasis": "Explicit project source citation",
   "series": "rrls-studio",
   "version": "0.27",
   "seriesOrder": 19,
   "date": "2026-09-06",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "corrected",
   "statusBasis": "r-8cae97ff1389 reproduces and repairs defects in the v0.27 source and narrows its claims: \"This release repairs concrete source defects and adds a bounded generator-identification module.\"",
   "question": {
    "text": "Can future motion be simulated by storing a compact generator and jumping straight to the next event, in any number of coordinate dimensions?",
    "basis": "editorial"
   },
   "result": {
    "text": "Exact next-collision solving passed 1,080/1,080 checks and returned a 97-digit collision tick without enumerating intervening ticks; recurrence became rarer, not inevitable, as dimensions were added.",
    "basis": "editorial"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "The benchmark figures below are the historical v0.27 record, not fresh measurements of the repaired release.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "A useful v0.28 target would compare automatic model selection among:",
    "basis": "source"
   },
   "abstract": {
    "text": "6 September 2026 audit notice: RRLS_v27_SOURCE_AUDIT.md documents the v0.27.1 source repairs and new tests. The benchmark figures below are the historical v0.27 record, not fresh measurements of the repaired release. In particular, the capture layer is an integer-tick point-coincidence automaton; it cannot establish continuous strand non-crossing. Complete generator identification additionally requires a declared class; the new bounded-order recurrence learner makes that assumption explicit.",
    "basis": "editorial"
   },
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     "quote": "A useful v0.28 target would compare automatic model selection among:",
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    "originalPath": "/The Theory of Reality/RRLS_v27_DIMENSIONAL_FUTURE_REPORT.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-5d2c11aea25f",
   "title": "Fixed Grid String Lab 0.1.0 results",
   "titleBasis": "source",
   "type": "report",
   "project": "gauge",
   "projects": [
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   ],
   "projectBasis": "Editorial topic association",
   "series": "fixed-grid-string-lab",
   "version": "0.1",
   "seriesOrder": 1,
   "date": "2026-09-20",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in fixed-grid-string-lab",
   "question": {
    "text": "Can a candidate universal time tick be rejected against rounded measured wavelengths, and does a discrete four-coordinate integer string evolve exactly and reversibly?",
    "basis": "editorial"
   },
   "result": {
    "text": "Thus finite-precision values alone cannot identify an arbitrarily small universal tick.",
    "basis": "source"
   },
   "checks": {
    "text": "Define one electromagnetic, gauge-consistent discrete hydrogen Hamiltonian on a declared (dx, dt), demonstrate convergence as the grid is refined, freeze its parameters, and predict several hydrogen transitions before comparison to new data.",
    "basis": "source",
    "sourceSection": "source-h-5"
   },
   "limits": {
    "text": "It does not establish a physical spacetime lattice, a fundamental fifth-dimensional particle, hydrogen dynamics, or a tick that generates all observable values.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Define one electromagnetic, gauge-consistent discrete hydrogen Hamiltonian on a declared `(dx, dt)`, demonstrate convergence as the grid is refined, freeze its parameters, and predict several hydrogen transitions before comparison to new data.",
    "basis": "source"
   },
   "abstract": {
    "text": "The engine now distinguishes a fixed coordinate lattice from the stronger claim that every observable is a direct integer multiple of one increment. For the latter, it implements an exact failure rule: a candidate tick fails if any declared measurement interval contains no integer multiple.",
    "basis": "editorial"
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    "authorBasis": "Collection attribution; original record retains its own credits"
   },
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   "title": "Fixed Grid String Lab 0.2.0 — bounded results",
   "titleBasis": "source",
   "type": "report",
   "project": "gauge",
   "projects": [
    "gauge"
   ],
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   "statusBasis": "mechanical v0: a later release exists in fixed-grid-string-lab",
   "question": {
    "text": "Does a frozen radial finite-difference Coulomb model reproduce its exact half-line spectrum, and what can fixed time ticks identify about time?",
    "basis": "editorial"
   },
   "result": {
    "text": "the largest production discrepancy from the half-line reference is \\(4.7463\\times10^{-14}\\) Hartree, below the frozen \\(10^{-8}\\) threshold.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "There are **zero fitted parameters and no measured validation data**. The physical promotion gate remains blocked.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The immediate next bounded test is to add the \\(l=1\\) radial sector with its declared centrifugal term and a dipole operator.",
    "basis": "source"
   },
   "abstract": {
    "text": "The release supplies a frozen radial Coulomb benchmark and corrects two foundational interpretations. Its results are conditional mathematics and finite computation. There are zero fitted parameters and no measured validation data. The physical promotion gate remains blocked.",
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   "id": "r-1c5e7fdacf87",
   "title": "Fixed Grid String Lab 0.3.0 — 1S→2P benchmark results",
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   "type": "report",
   "project": "gauge",
   "projects": [
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    "text": "Does the frozen radial model, extended to l=1 with a length-gauge dipole operator, converge to the exact nonrelativistic 1S→2P gap, matrix element and oscillator strength?",
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   "result": {
    "text": "The frozen `radial-coulomb-e1-dirichlet-v1` benchmark passed every declared gate on its first run.",
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   },
   "checks": {
    "text": "The frozen radial-coulomb-e1-dirichlet-v1 benchmark passed every declared gate on its first run. It fits zero parameters and uses no measured validation. The result verifies an implementation of imported nonrelativistic quantum mechanics; it is not evidence for strings, extra dimensions or a physical grid.",
    "basis": "source",
    "sourceSection": "source-h-1"
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    "text": "The result verifies an implementation of imported nonrelativistic quantum mechanics; it is not evidence for strings, extra dimensions or a physical grid.",
    "basis": "source"
   },
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    "text": "It is one explicit project-specific interaction term that produces a numerical contrast from the standard model.",
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    "text": "The frozen radial-coulomb-e1-dirichlet-v1 benchmark passed every declared gate on its first run. It fits zero parameters and uses no measured validation. The result verifies an implementation of imported nonrelativistic quantum mechanics; it is not evidence for strings, extra dimensions or a physical grid.",
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   "title": "Results 0.7 — dimensional slices and aliases",
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   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in fixed-grid-string-lab",
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    "text": "What can an observer infer about a finite 4D set from labelled 3D slices, axis line-sum projections and a single scalar generator index?",
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   "result": {
    "text": "A 137-voxel discrete 4-ball reconstructs exactly from five labelled 3D slices; symmetric difference is zero.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
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   "limits": {
    "text": "These are written mathematics and finite synthetic computation. Four axis views are not a complete Radon transform.",
    "basis": "source"
   },
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    "text": "Whether two frozen bridge models, ordinary 3D plus internal state versus an explicit extra coordinate, predict different calibrated outcomes; set out in companion derivation r-0a81254b1bd1.",
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    "text": "Protocol SHA-256: 53c0b52b585a5796e5cac5881e15e36100f251a3c4d898b70dce652a96935679",
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   "id": "r-f2f7bd9d9599",
   "title": "Version 0.22.0 — paired-reference calibration boundary",
   "titleBasis": "source",
   "type": "documentation",
   "project": "gauge",
   "projects": [
    "gauge"
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   "projectBasis": "Explicit project source citation",
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   "dateBasis": "unknown",
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   "status": "current",
   "statusBasis": "r-f2f7bd9d9599 is the latest recovered release of the lab and archives its predecessor: \"The complete previous paper, ledger, README and version are retained under `history/pre_0.22.0/`.\"",
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    "text": "Under a shared detector and optical path, can a sample/reference ratio identify a material delay kernel, and which mismatch defeats that identification?",
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    "text": "Under an exactly shared detector and optical-path kernel, the sample/reference Laplace-transform ratio identifies the material kernel.",
    "basis": "source"
   },
   "checks": {
    "text": "Run python reference_calibration.py, python independent_reference_calibration_audit.py, and python -m unittest discover -p 'test_*.py' -q; inspect RESULTS_0.22.md. Under an exactly shared detector and optical-path kernel, the sample/reference Laplace-transform ratio identifies the material kernel. A sample-only path mismatch multiplies into the same ratio, and an exact counterexample replaces the entire 0.8 ns material delay with an observationally identical 0.8 ns excess-path delay. This is conditional mathematics plus finite synthetic checking, not a measured afterglow or evidence of an extra dimension.",
    "basis": "source",
    "sourceSection": "source-h-1"
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   "limits": {
    "text": "This is conditional mathematics plus finite synthetic checking, not a measured afterglow or evidence of an extra dimension.",
    "basis": "source"
   },
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    "text": "Whether any measured dataset can meet the lab's model, units and observable gate; the 0.19.0 entry records that none currently does.",
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   },
   "abstract": {
    "text": "Run python reference_calibration.py, python independent_reference_calibration_audit.py, and python -m unittest discover -p 'test_*.py' -q; inspect RESULTS_0.22.md. Under an exactly shared detector and optical-path kernel, the sample/reference Laplace-transform ratio identifies the material kernel. A sample-only path mismatch multiplies into the same ratio, and an exact counterexample replaces the entire 0.8 ns material delay with an observationally identical 0.8 ns excess-path delay. This is conditional mathematics plus finite synthetic checking, not a measured afterglow or evidence of an extra dimension.",
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   "title": "Fixed Grid String Lab claim ledger",
   "titleBasis": "source",
   "type": "claim-ledger",
   "project": "gauge",
   "projects": [
    "gauge"
   ],
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   "status": "reference",
   "statusBasis": "Claim ledger for release 0.1.0 (r-5d2c11aea25f, same date). Its tick non-identification claim is kept in force by the 0.2.0 contract r-03e1b6b1c0c4: \"Appendix AR's finite-precision tick non-identification and Appendix BO's two-oscillator projection equivalence remain in force.\"",
   "question": {
    "text": "Which claims does the 0.1.0 lab make, of which evidential type, and what does each claim not establish?",
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   "result": {
    "text": "Given finitely many observations with positive tolerances `epsilon_i`, every `delta <= 2 min(epsilon_i)` fits by nearest-integer rounding.",
    "basis": "source"
   },
   "checks": {
    "text": "- Claim: Decimal reporting can create an exact apparent tick unrelated to nature. The printed nanometre wavelengths are exact multiples of (10^-15 m)/c after conversion to times. - Type: Exact-decimal finite computation. - Consequence: Discovering a common divisor of rounded data is not evidence for a natural spacetime tick.",
    "basis": "source",
    "sourceSection": "source-h-6"
   },
   "limits": {
    "text": "No result here establishes seven physical dimensions, P=NP, or a theological cause.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "A lower bound, complexity restriction, or predictive law is necessary.",
    "basis": "source"
   },
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    "text": "- Claim: The implemented four-coordinate integer field obeys the declared Courant-1 discrete wave equation and is reversible one tick at a time. - Type: Written algebra plus finite exact computation. - Assumptions: Periodic string sites, integer initial profiles, the fixed recurrence in discrete_string.py. - Does not establish: A physical spacetime lattice, a fifth-dimensional particle, hydrogen dynamics, Lorentz invariance, or a continuum limit.",
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   "title": "Dimensional slices, shadows and regular generators",
   "titleBasis": "source",
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    "text": "The release asks what an observer can infer about a finite set `M subset Z^4` from complete labelled 3D slices, coordinate-axis line-sum projections, and a scalar parameter indexing changing 4D geometry.",
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   "result": {
    "text": "Hence `E != O` but all four axis X-rays agree. Their labelled `w` slices differ and reconstruct each set separately.",
    "basis": "source"
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   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
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   "limits": {
    "text": "No physical measurements are used, so no fourth or fifth spatial dimension is identified.",
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    "text": "Next, freeze two dynamical bridge models—ordinary 3D plus internal state versus an explicit extra spatial coordinate—that predict different calibrated outcome distributions under one intervention.",
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    "text": "The release asks what an observer can infer about a finite set M subset Z^4 from complete labelled 3D slices, coordinate-axis line-sum projections, and a scalar parameter indexing changing 4D geometry. w and lambda are mathematical labels, not inferred physical axes.",
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   "title": "Foundation contract — Fixed Grid String Lab 0.2.0",
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   "statusBasis": "Governing contract for release 0.2.0, cited by r-441b2e8db915: \"Existing tick, projection and historical corrections remain intact under [FOUNDATION_CONTRACT.md](FOUNDATION_CONTRACT.md).\" Not replaced in the indexed records.",
   "question": {
    "text": "Which objects and evidence types must stay separate, and what must be frozen before any result is promoted to a physical claim?",
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   "result": {
    "text": "Mathematical validity (**M**), computation (**C**), measurement (**E**), physical hypothesis (**H**) and theological interpretation (**T**) retain their separate status.",
    "basis": "source"
   },
   "checks": {
    "text": "Computational \\(\\Delta x\\) and \\(\\Delta t\\) specify representation or evaluation resolution. Physical spacings would be parameters of a fixed physical law with identifiable consequences. Decreasing numerical error does not establish a physical lattice, and a passing tiny tick is not evidence of quantized time.",
    "basis": "source",
    "sourceSection": "source-h-4"
   },
   "limits": {
    "text": "It establishes requirements for claims; it does not certify every historical proof, implementation or dataset.",
    "basis": "source"
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   "nextQuestion": {
    "text": "A **numerical contrast** between candidate and conventional predictions for a named measured observable, with uncertainty and sufficient resolving power.",
    "basis": "source"
   },
   "abstract": {
    "text": "This contract governs the interpretation of FOUNDATION_PROTOCOL_0.2.json and the accompanying Theory of Reality revision. It establishes requirements for claims; it does not certify every historical proof, implementation or dataset. New interpretations must preserve the distinctions below.",
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   "title": "Hydrogen 1S→2P electric-dipole benchmark",
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    "text": "What are the exact nonrelativistic 1S→2P gap, radial dipole integral, oscillator strength and angular selection rules for the declared radial model?",
    "basis": "editorial"
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   "result": {
    "text": "Thus the implemented one-photon E1 model allows 1S→2P with \\(m'=0\\), while 1S→2S, 1S→3D and the z-polarized 1S→2P \\(m'=1\\) matrix elements vanish from the angular factor.",
    "basis": "source"
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   "checks": {
    "text": "Fixed Grid String Lab 0.3.0 / Theory of Reality 1.78.",
    "basis": "source",
    "sourceSection": "source-h-1"
   },
   "limits": {
    "text": "It therefore does not predict the precision components of the physical Lyman-α doublet.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Whether the program converges to these exact targets under grid and wall refinement; results 0.3.0 (r-1c5e7fdacf87) report that it does.",
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    "text": "Fixed Grid String Lab 0.3.0 / Theory of Reality 1.78.",
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   "question": {
    "text": "does the implemented radial finite-difference Coulomb model reproduce its exact spectrum and its continuum limit?",
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   "result": {
    "text": "Successful numerical gates establish that the declared operator was solved correctly and approaches the stated continuum model.",
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    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
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   "limits": {
    "text": "They do not supply evidence that nature uses this radial grid or this time sampling.",
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   "nextQuestion": {
    "text": "Thus Appendix AR's complete electromagnetic physical gate remains open even if this smaller bound-state gate passes.",
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    "text": "Fixed Grid String Lab 0.2.0 / Theory of Reality 1.77.",
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    "text": "Which prior work and reference data does release 0.3.0 rely on, and in what role?",
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   "result": {
    "text": "They supply prior mathematical and spectroscopy context; they do not supply measured validation for this release.",
    "basis": "source"
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    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
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   "limits": {
    "text": "agreement therefore validates implementation inside the imported model rather than providing independent physical evidence.",
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    "text": "None stated; this provenance record documents sources and the frozen-before-execution protocol only.",
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    "text": "Sources checked on 21 September 2026. They supply prior mathematical and spectroscopy context; they do not supply measured validation for this release.",
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    "text": "Which mathematical sources (discrete tomography, Peano, Sard) underpin release 0.7.0?",
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    "text": "These are mathematical sources, not observations of an extra physical dimension.",
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    "text": "The program independently replays only its finite claims.",
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   "abstract": {
    "text": "1. R. J. Gardner and P. Gritzmann, “Discrete Tomography: Determination of Finite Sets by X-rays,” *Transactions of the AMS* 349 (1997), 2271–2295. https://www.ams.org/journals/tran/1997-349-06/S0002-9947-97-01741-8/S0002-9947-97-01741-8.pdf",
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  {
   "id": "r-26ff0912ad26",
   "title": "Hydrogen Matrix Lab 0.1.0 — checked result",
   "titleBasis": "source",
   "type": "report",
   "project": "hydrogen",
   "projects": [
    "hydrogen"
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   "projectBasis": "Editorial topic association",
   "series": "hydrogen-matrix-lab",
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   "date": "2026-09-20",
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   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in hydrogen-matrix-lab",
   "question": {
    "text": "Can a finite Cartesian matrix reproduce the exact ideal hydrogen 1s density and its radial moments, with an independent script checking the numbers?",
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    "text": "A separate script that does not import the implementation recomputed the radial normalization and moments using SciPy quadrature and recomputed the voxel integrals directly from the saved NPZ matrix. All seven declared checks passed:",
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   "checks": {
    "text": "A separate script that does not import the implementation recomputed the radial normalization and moments using SciPy quadrature and recomputed the voxel integrals directly from the saved NPZ matrix. All seven declared checks passed: - continuous normalization, mean radius, and mean-square radius; - matrix normalization, mean radius, and RMS radius; - equality of the three matrix second moments to numerical precision.",
    "basis": "source",
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   "limits": {
    "text": "this result validates the implementation against standard hydrogen quantum mechanics; it does not validate a new ontology, a literal electron path, seven physical dimensions, P=NP, or a theological identification.",
    "basis": "source"
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   "nextQuestion": {
    "text": "Add the `2p_z` state, verify its nodal plane and normalization independently, and compare its two-lobed signed wavefunction with its nonnegative probability density.",
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    "text": "The exact idealized hydrogen 1s density was evaluated on a 129 x 129 x 129 Cartesian matrix over [-8 a0, +8 a0] in each direction. A static mesh was then built at the matrix-derived radius enclosing 90% of the represented probability.",
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   "title": "Hydrogen Matrix Lab 0.2.0 — waves and 4D projection",
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   "statusBasis": "r-249244afa345 tests and rejects its rotor family: \"The exact release-0.2 projected-envelope rotor family is therefore rejected as an adequate generator of the declared quantum reference.\"",
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    "text": "Can the lab show a genuinely time-changing hydrogen density, and can a synthetic four-dimensional touching-rotor geometry be built as a separate, testable hypothesis?",
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   "result": {
    "text": "The independent implementation reduced both exact three-dimensional normalization integrals to separate radial quadratures and directly re-audited the saved matrices. All eight independent wave checks passed.",
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    "text": "Fit only the synthetic rotor parameters on part of the quantum reference cycle, freeze them, and score the remaining phases voxel-by-voxel. Compare against a radial baseline. If the 4D generator cannot reproduce the 2p_z nodal plane, mirror relation, and full held-out cycle simultaneously, reject this version of the mechanism rather than tuning it after seeing the test frames.",
    "basis": "source",
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    "text": "This is a successful implementation of the proposed geometry, **not evidence that the geometry generates hydrogen**.",
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    "text": "If the 4D generator cannot reproduce the `2p_z` nodal plane, mirror relation, and full held-out cycle simultaneously, reject this version of the mechanism rather than tuning it after seeing the test frames.",
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    "text": "The release 0.1.0 1s cloud was correctly static: for one energy eigenstate, the time factor is a global complex phase and cancels from |psi|^2. It therefore could not show interacting waves producing a changing 3D image.",
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   "title": "Hydrogen Matrix Lab 0.3.0 — spectroscopy calibration and frozen rotor holdout",
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    "text": "Can the release-0.2 tangent-3-sphere projection family be calibrated on selected phases and then reproduce unseen phases of the declared hydrogen `1s + 2p_z` reference better than simpler frozen baselines?",
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    "text": "Only periodicity passed. The exact release-0.2 projected-envelope rotor family is therefore rejected as an adequate generator of the declared quantum reference.",
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   "checks": {
    "text": "- All 23 unit-test groups pass: 18 inherited and 5 new. - The independent 0.3 implementation reproduces the NIST-derived quantities, both saved matrices, the train/holdout split, aggregate scores, centroid correlation, all five decisions, and the final rejection. - Existing release-0.1 and release-0.2 artifacts are retained unchanged inside the package.",
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    "text": "The NIST table is spectral evidence, not a 3D movie of one atom.",
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    "text": "Do not add more rotor parameters to this holdout. Derive the next candidate from a Hamiltonian or continuity equation first.",
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    "text": "Can the release-0.2 tangent-3-sphere projection family be calibrated on selected phases and then reproduce unseen phases of the declared hydrogen 1s + 2p_z reference better than simpler frozen baselines?",
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     "quote": "Does that discrepancy require a new force, or is it mostly the result of standard electromagnetic structure omitted from the baseline?",
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   "title": "Hydrogen Matrix Lab 0.4.0 — bounded rescue tests",
   "titleBasis": "source",
   "type": "report",
   "project": "hydrogen",
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   "question": {
    "text": "Can extra phase-shifted copies of the frozen rotor rescue the failed holdout, and does temperature reverse the direction of quantum phase?",
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    "text": "Five of six gates fail, so this bounded rescue is rejected.",
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    "text": "All 29 unit-test groups pass (23 inherited plus 6 new). A separate implementation reconstructs the spectroscopic gap, optical period, all three thermal population ratios, time-reversal sign, saved latent-component metrics, simplex weights, and the six-gate decision: 11/11 checks pass.",
    "basis": "source",
    "sourceSection": "source-h-4"
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    "text": "This is a synthetic model-comparison result. It does not prove that no missing variable exists.",
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    "text": "Specify a genuinely new interaction law—preferably a Hamiltonian or continuity equation—that predicts both spectral and spatial observables with a fixed parameter budget.",
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    "text": "The release-0.3 six-parameter geometry was frozen. A prespecified extension allowed up to four nonnegative phase-shifted copies chosen from twelve offsets. Global simplex weights and component choices were learned on the same eight training phases; the four-component rescue candidate was then evaluated on the sixteen previously untouched phases.",
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   "id": "r-81b60f656540",
   "title": "Hydrogen Matrix Lab 0.5.0 — electromagnetic correction ladder",
   "titleBasis": "source",
   "type": "report",
   "project": "hydrogen",
   "projects": [
    "hydrogen"
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   "date": "2026-09-20",
   "dateBasis": "saved",
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   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in hydrogen-matrix-lab",
   "question": {
    "text": "Does that discrepancy require a new force, or is it mostly the result of standard electromagnetic structure omitted from the baseline?",
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   "result": {
    "text": "Reduced mass alone removes `97.7729%` of H0's centroid absolute error. H2 removes `99.3796%`, predicts two distinct lines, and predicts a fine-structure wavelength split of `0.000539476 nm`, versus NIST's `0.000540747 nm` (`-0.2351%` relative split error).",
    "basis": "source"
   },
   "checks": {
    "text": "Add the complete standard precision ladder—recoil, Lamb/QED, finite-size, and hyperfine contributions—and validate it against multiple independently sourced hydrogen transitions, not only Lyman-alpha. Only then freeze one explicit higher-dimensional operator and test whether it predicts a state-dependent residual pattern that cannot be absorbed by the standard constants.",
    "basis": "source",
    "sourceSection": "source-h-5"
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   "limits": {
    "text": "It does not identify a unique new force, a fourth spatial dimension, a string/rotor mechanism, or a theological cause.",
    "basis": "source"
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   "nextQuestion": {
    "text": "Add the complete standard precision ladder—recoil, Lamb/QED, finite-size, and hyperfine contributions—and validate it against multiple independently sourced hydrogen transitions, not only Lyman-alpha.",
    "basis": "source"
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   "abstract": {
    "text": "The old fixed-proton Schrödinger clock missed the NIST Lyman-alpha centroid by about -0.05325%. Does that discrepancy require a new force, or is it mostly the result of standard electromagnetic structure omitted from the baseline?",
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   "title": "Hydrogen Matrix Lab 0.6.0 — conserved flow and observable harmonics",
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   "type": "report",
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   "question": {
    "text": "What equation converts that interference into conserved spatial flow, and does every density beat become an electric-dipole/light harmonic?",
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    "text": "Forty claims are classified; the rotor fit, rotor rescue, temperature-direction, golden-ratio law, extra-dimension and completeness claims are recorded as rejected or not supported.",
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    "text": "A future model must derive `H_candidate = H_standard + lambda O_4`, freeze its parameters, and beat the complete declared standard baseline on fresh observables.",
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   "abstract": {
    "text": "Provenance: release 0.1.0 files remain preserved. Release 0.2.0 adds hydrogen_4d_wave.py, four_d_touching_rotors.py, their tests, independent_wave_check.py, outputs/wave_summary.json, outputs/independent_wave_check.json, and outputs/touching_rotor_summary.json. Release 0.3.0 adds the frozen NIST-clock calibration, train/holdout rotor test, independent replay, and comparison matrices without overwriting earlier negative or positive results. Release 0.4.0 adds the frozen bounded latent-component extension and temperature/phase-direction test; the 0.3 outputs and rejection remain unchanged.",
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   "id": "r-4d178b10ff09",
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    "text": "Ran 42 tests in 0.462s",
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    "text": "Does the next release keep every earlier check and rejection unchanged while adding its own?",
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    "text": "Do all release-0.7 package tests and independent audits, including the golden-ratio scan, pass on replay?",
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    "text": "Ran 51 tests in 0.743s",
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    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
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    "text": "\"classification\": \"independent finite computation; no new measurement\"",
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    "text": "Does release 0.8 keep these checks passing? Its own log is referenced but not in the corpus.",
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    "text": "matrix: [129, 129, 129], spacing=0.125 a0 represented probability: 1.000038674597 90% envelope: 2.660474582 a0 basis: [129, 129, 129] 4D density matrix: [24, 49, 49, 49] 1s norm: 1.000658729139 2p_z norm: 0.999924863898 overlap: -1.084e-18 beat period: 405.287959 as { \"release\": \"0.2.0\", \"status\": \"synthetic geometric hypothesis; not hydrogen physics\", \"generator\": \"two tangent 3-spheres in R4 rotating through the x-w plane; local perspective envelopes emit interfering complex waves\", \"matrix_shape\": [ 24, 35, 35, 35 ], \"four_dimensional_checks\": { \"center_distance\": 3.4, \"expected_center_distance\": 3.4, \"contact_distance_from_first_center\": 1.7,…",
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   "id": "r-c69c23892b03",
   "title": "Hydrogen, musical octaves, and alpha: checked results",
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    "text": "Do hydrogen's Balmer lines, divided down by 2^40, land on musical notes more closely than a random tuning would? Does a pi expression equal inverse alpha?",
    "basis": "editorial"
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   "result": {
    "text": "The proposed general musical law and geometric derivation of alpha are not established.",
    "basis": "source"
   },
   "checks": {
    "text": "Ten unit tests passed. A separately written audit, importing none of the main implementation, reproduced the material calculations using 60-digit Decimal arithmetic, bisection for the air conversion, natural logarithms, and Machin's formula for pi. It checked the common-offset result by enumeration rather than piecewise integration.",
    "basis": "source",
    "sourceSection": "source-h-7"
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   "limits": {
    "text": "The line selection and mapping are exploratory choices made with familiar data. Saving the protocol before computing its score is a local freeze, not external preregistration or fresh held-out validation.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Keep this mapping frozen and compare hydrogen with deuterium isotope shifts, specifying the transitions and score before retrieving the next dataset. Require predictions of the shifts, not just fresh nearest-note labels.",
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   "abstract": {
    "text": "21 September 2026 · Standalone exploratory study HARMONIC-ALPHA-01",
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   "id": "r-a76f54a6d077",
   "title": "Results 0.1 — geometry helps, one harmony coordinate does not suffice",
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   "question": {
    "text": "Does molecular arrangement predict boiling temperature better than chemical formula alone, and can one scalar 'harmony' coordinate predict phase or conductivity?",
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   "result": {
    "text": "The single held-out prediction is therefore 295.9 K for isopentane. NIST's average is 301.1 K, so the absolute error is 5.2 K.",
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    "text": "The result does not generalize to all phase boundaries. Fusion temperatures are 143.4 K, 113 K, and 255 K: they are not monotone in the same geometry coordinate.",
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   "nextQuestion": {
    "text": "Does the topology signal transfer to a larger held-out set of alkane isomers, with boiling and fusion scored separately?",
    "basis": "editorial"
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    "text": "The frozen test uses NIST average phase-change values for the three C5H12 isomers. Their computed carbon-skeleton Wiener indices are 20 for n-pentane, 18 for isopentane, and 16 for neopentane.",
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   "id": "r-565c4b7a0100",
   "title": "Reality revision 1.45 — alkane topology transfer test",
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   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in theory-revisions",
   "question": {
    "text": "Does simple graph topology learned on C5 and C6 alkanes predict boiling and fusion temperatures of all nine held-out C7 isomers?",
    "basis": "editorial"
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   "result": {
    "text": "Topology helps boiling: adding carbon-skeleton Wiener and first Zagreb indices to carbon count reduces C7 MAE from 8.554 K to 4.500 K and RMSE from 10.107 K to 5.382 K.",
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   },
   "checks": {
    "text": "Matter Harmony Lab 0.2.0 executes the larger molecule study reserved in revision 1.44. All C5 and C6 alkane isomers train two fixed ordinary least-squares representations; all nine C7 isomers are held out from fitting. Normal boiling and fusion temperatures are scored separately.",
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    "sourceSection": "source-h-1"
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    "text": "This supports only property-specific predictive value for simple topology. It does not identify hidden-dimensional strings or prove that every model failure is caused by omitted particles.",
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   "nextQuestion": {
    "text": "The next confirmatory block is all 18 octane isomers, reserved until a crystal-sensitive descriptor set and both property models are frozen.",
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    "text": "Matter Harmony Lab 0.2.0 executes the larger molecule study reserved in revision 1.44. All C5 and C6 alkane isomers train two fixed ordinary least-squares representations; all nine C7 isomers are held out from fitting. Normal boiling and fusion temperatures are scored separately.",
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   "id": "r-1dcee8467de9",
   "title": "Reality revision 1.46 — latent rotation matrices and inverse limits",
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   "question": {
    "text": "Can a five-coordinate latent rotation be written explicitly for molecules, and can static property tables recover such hidden rotations?",
    "basis": "editorial"
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   "result": {
    "text": "Mapping observed boiling and fusion temperatures to angular coordinates reproduces all values to machine precision, but independently shuffled values reproduce equally exactly.",
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   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
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    "text": "This is a mathematical construction and finite synthetic calculation using reference property data, not a measured molecular trajectory, new force law, or physical identification of fourth/fifth dimensions.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next test must freeze a target-independent descriptor-to-generator law and evaluate a fresh C8 or time-dependent/spectroscopic target without using that target to define its frequency.",
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    "text": "Matter Harmony Lab 0.3.0 now builds explicit theoretical vector matrices for a five-coordinate molecular state and its three-dimensional projection: The real skew-symmetric generator preserves five-dimensional norms. All 17 frozen C5--C7 alkane graphs receive position, velocity, and phase-interference matrices, and n-heptane receives a 65-frame projected animation.",
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   "title": "Reality Revision 1.47 — water harmonics without hidden-dimension inflation",
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   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in theory-revisions",
   "question": {
    "text": "Can the latent-harmony idea drive a 64-molecule water animation without the moving picture being treated as evidence of hidden dimensions?",
    "basis": "editorial"
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   "result": {
    "text": "Therefore neither a moving picture nor fixed samples uniquely identify continuous hidden rotations.",
    "basis": "source"
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   "checks": {
    "text": "The 64-frame computation preserves state norm to 2.220e-16, rigid molecular geometry to below 1.2e-13 degrees and 1.4e-15 Å, and the calibrated density to reported precision. Forty-one unit tests pass. A separately implemented audit checks 36,864 atomic-coordinate scalars and the principal invariants.",
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    "sourceSection": "source-h-3"
   },
   "limits": {
    "text": "This is a synthetic harmonic network, not liquid-water molecular dynamics, quantum electrodynamics, hydrodynamics, or measured evidence of a fourth or fifth spatial dimension.",
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   },
   "nextQuestion": {
    "text": "The next admissible test is an ordinary electrostatic water baseline with explicit charges and a frozen time-dependent dielectric or structure-factor target.",
    "basis": "source"
   },
   "abstract": {
    "text": "Matter Harmony Lab 0.4.0 adds an executable many-molecule water animation. Sixty-four rigid H2O geometries are placed on an ordered periodic tetrahedral scaffold whose box volume matches the declared 298.15 K water density. A 320-coordinate skew system couples 192 visible displacement coordinates to 128 hidden coordinates and projects only the visible block into the rendered three-dimensional positions.",
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   "title": "Reality Revision 1.48 — origami is an observation map, not a hidden-state proof",
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   "type": "revision-note",
   "project": "matter",
   "projects": [
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   "statusBasis": "mechanical v0: a later release exists in theory-revisions",
   "question": {
    "text": "Can a complete polarisation trace of water reveal the underlying molecular motion, or does the observation fold many microstates into one signal?",
    "basis": "editorial"
   },
   "result": {
    "text": "Therefore a perfect polarization trace still does not reconstruct a unique molecular movie.",
    "basis": "source"
   },
   "checks": {
    "text": "Let the microscopic dipole state be x in R^(3N) and let the oscilloscope report",
    "basis": "source",
    "sourceSection": "source-h-3"
   },
   "limits": {
    "text": "The two microscopic movies are controlled realizations, not molecular dynamics. The model does not yet reproduce a held-out dielectric spectrum, structure factor, diffusion coefficient, viscosity, magnetic response, or quantum observable.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next test is a frozen multi-frequency complex-permittivity comparison on held-out measurements, with a structural observable added whenever polarization alone cannot distinguish candidate microscopic geometries.",
    "basis": "source"
   },
   "abstract": {
    "text": "Matter Harmony Lab 0.5.0 adds an ordinary explicit-charge water response. A neutral rigid three-site molecule with charges -0.834e, +0.417e, +0.417e has a 2.346971 D model dipole. The macroscopic reference is a single-Debye response calibrated to the published 18.56 GHz primary relaxation of pure water at 25 degrees C:",
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   "id": "r-fa4c581af7dc",
   "title": "Reality Revision 1.49 — Sun–Water Eye Observer",
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   "type": "revision-note",
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   "statusBasis": "mechanical v0: a later release exists in theory-revisions",
   "question": {
    "text": "What does an ordinary-optics model of sunlight through moving water show a standard human colour observer, and what can that observer not recover?",
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   },
   "result": {
    "text": "Thus the observer map is many-to-one even before noise, adaptation, or neural processing is considered.",
    "basis": "source"
   },
   "checks": {
    "text": "The IAPWS and CIE quantities are reference inputs; Snell/Fresnel optics and the non-identifiability constructions are mathematics; the animation is finite synthetic computation. No new physical measurement was made. Absorption, scattering, diffraction, coherence, polarization-resolved transport, detailed ocular optics, retina, and visual cortex remain absent.",
    "basis": "source",
    "sourceSection": "source-h-5"
   },
   "limits": {
    "text": "Absorption, scattering, diffraction, coherence, polarization-resolved transport, detailed ocular optics, retina, and visual cortex remain absent.",
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   },
   "nextQuestion": {
    "text": "The next falsifiable test is to freeze a measured water-surface height movie, depth, camera geometry, and illumination, then score caustic ridge positions and chromatic offsets on held-out frames without refitting.",
    "basis": "source"
   },
   "abstract": {
    "text": "Matter Harmony Lab 0.6.0 adds a bounded ordinary-optics baseline for the requested fixed Sun, moving water, and human observer. The source is a fixed distant 5772 K Planck spectrum. A declared three-component linear gravity-wave surface supplies height and normal at every ray origin. For each wavelength, the IAPWS R9-97 formulation supplies the water refractive index, and the engine applies unpolarized Fresnel reflection and vector Snell refraction. Refracted ray density on an underwater plane produces the caustic image.",
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  {
   "id": "r-7ba09023fac2",
   "title": "Reality Revision 1.50 — Water-Drop Acoustic Observer",
   "titleBasis": "source",
   "type": "revision-note",
   "project": "matter",
   "projects": [
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   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in theory-revisions",
   "question": {
    "text": "Can a water-drop impact be rendered with synchronised picture and sound, and does the sound identify the bubble that produced it?",
    "basis": "editorial"
   },
   "result": {
    "text": "The central checked result is a 4110.92 Hz analytic bubble resonance and a 4116.67 Hz finite-window FFT peak.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
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   },
   "limits": {
    "text": "The waveform is a physical candidate, not a recording. Bubble formation, radius, damping, and coupling are not predicted.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next test requires synchronized high-speed video and calibrated microphone data from one frozen real impact.",
    "basis": "source"
   },
   "abstract": {
    "text": "Matter Harmony Lab 0.7.0 adds a synchronized surface-and-sound branch. It calculates a 4.0 mm drop's impact kinematics, propagates a declared radial capillary–gravity packet, assigns one declared entrained bubble an ideal Minnaert resonance, and transports a compact surface-coupled pressure candidate through air to a microphone 0.75 m away.",
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  {
   "id": "r-21c9ff49e14b",
   "title": "Reality Revision 1.51 — Bubble Observation Fibers",
   "titleBasis": "source",
   "type": "revision-note",
   "project": "matter",
   "projects": [
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   "version": "1.51",
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   "dateBasis": "saved",
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   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in theory-revisions",
   "question": {
    "text": "With ordinary vapour-pressure and surface-tension terms included, does a complete bubble pressure waveform identify bubble radius and thermodynamic state?",
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   },
   "result": {
    "text": "Thus the complete pressure waveform in this bounded model identifies an observation fiber, not a unique bubble state.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "These are written mathematics and finite synthetic tests, not measured water-drop evidence.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next experiment must add synchronized radius/depth imaging and calibrated underwater plus airborne pressure; an unexplained residual still cannot identify an extra dimension or theological cause.",
    "basis": "source"
   },
   "abstract": {
    "text": "Matter Harmony Lab 0.8.0 corrects the temptation to treat one bubble tone as a point estimate of geometry. The release-0.7 value 4110.9205 Hz remains correct inside its declared ideal Minnaert assumptions. Adding ordinary small-amplitude vapor-pressure and surface-tension terms gives 4048.9557 Hz for the same 0.800 mm bubble when the effective polytropic exponent is fixed at 1.4, a 1.5073% shift. Allowing the bounded sensitivity interval \\(1\\le\\kappa\\le1.4\\) widens the radius compatible with the old pitch to 0.6659558--0.7879498 mm.",
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  {
   "id": "r-3a2a485fc9f0",
   "title": "Reality Revision 1.52 — phase is an ensemble property",
   "titleBasis": "source",
   "type": "revision-note",
   "project": "matter",
   "projects": [
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   "version": "1.52",
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   "date": "2026-09-20",
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   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in theory-revisions",
   "question": {
    "text": "Do molecular vibrations alone determine whether water is solid, liquid or gas, or is phase a property of the interacting ensemble?",
    "basis": "editorial"
   },
   "result": {
    "text": "Thus isolated molecular vibrations cannot uniquely determine phase.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "The curves are finite synthetic constructions anchored to published water modes and argon parameters, not molecular dynamics or measured condensed-phase spectra.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next test is a frozen train/holdout molecular-dynamics experiment on independently labeled thermodynamic state points.",
    "basis": "source"
   },
   "abstract": {
    "text": "The proposed “vibrational families” become testable only after separating an isolated molecule from the interacting bulk system.",
    "basis": "editorial"
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  {
   "id": "r-a19a33573c53",
   "title": "Reality Revision 1.53 — a taxonomy of projected harmonies",
   "titleBasis": "source",
   "type": "revision-note",
   "project": "matter",
   "projects": [
    "matter"
   ],
   "projectBasis": "Editorial topic association",
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   "version": "1.53",
   "seriesOrder": 12,
   "date": "2026-09-20",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in theory-revisions",
   "question": {
    "text": "What can a fixed five-coordinate norm-preserving linear motion show in three dimensions, and what can a 3D observer infer about it?",
    "basis": "editorial"
   },
   "result": {
    "text": "every three-dimensional output is a constant plus at most two elliptical sine/cosine harmonies.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "These are written mathematics and finite noiseless synthetic computations—not measured physical evidence, proof of a fifth dimension, or theological identification.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next test will infer bounded mode counts from noisy 3D trajectories alone and must reject three-tone, nonlinear, and drifting controls as outside the five-coordinate skew-linear class.",
    "basis": "source"
   },
   "abstract": {
    "text": "The five-coordinate proposal now has an exact forward law and an explicit observation boundary. For a fixed real skew generator,",
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     "relation": "extends",
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     "quote": "The fixed skew-linear harmony engine is generalized from five coordinates to arbitrary latent dimension",
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  {
   "id": "r-03ea1efe29ee",
   "title": "Reality Revision 1.54 — hydrogen spectroscopy gate",
   "titleBasis": "source",
   "type": "revision-note",
   "project": "matter",
   "projects": [
    "matter"
   ],
   "projectBasis": "Editorial topic association",
   "series": "theory-revisions",
   "version": "1.54",
   "seriesOrder": 13,
   "date": "2026-09-20",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "Revision 1.56 replaced the feature-count approach. That revision has no record in the register; the manuscript r-1d8715c179d2 states: \"Appendix BE replaces the hydrogen feature-count exercise with a frozen transition holdout.\"",
   "question": {
    "text": "Can the five-coordinate harmony observer reproduce hydrogen's four visible Balmer lines as one linear temporal spectrum?",
    "basis": "editorial"
   },
   "result": {
    "text": "The four reference features at 410.17400, 434.04620, 486.13615, and 656.28518 nm therefore cannot all be the linear temporal spectrum of that model.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "Only the fixed linear five-coordinate observer is ruled out. Nonlinear, transition-based, time-varying, interacting or larger-state models are not tested here.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "The next hydrogen engine must declare a different class—most naturally validated energy state transitions, or else an explicit nonlinear, interacting, time-varying, or larger-state mechanism—and make fresh predictions.",
    "basis": "source"
   },
   "abstract": {
    "text": "The live atom now carries a numerical falsification layer. Four resolved visible H I Balmer features from the NIST strong-line table are compared with the exact frequency capacity of the revision-1.53 observer.",
    "basis": "editorial"
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   "title": "Reality revision 1.55 — multidimensional vector observers",
   "titleBasis": "source",
   "type": "revision-note",
   "project": "matter",
   "projects": [
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   "declaredDates": [],
   "status": "superseded",
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   "question": {
    "text": "If the latent dimension is raised beyond five and several observers are combined, which ambiguities disappear and which remain?",
    "basis": "editorial"
   },
   "result": {
    "text": "Multiple observers remove projection ambiguity, but they do not change the intrinsic spectrum of the generator.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "The evidence is written linear algebra and finite synthetic computation. It is not a measurement of 4D/5D motion.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next physical gate must freeze a transition operator and predict held-out spectral lines rather than selecting dimension or frequencies after seeing them.",
    "basis": "source"
   },
   "abstract": {
    "text": "The fixed skew-linear harmony engine is generalized from five coordinates to arbitrary latent dimension d. It now exposes both the latent vector x and its tangent vector A x, along with each calibrated three-dimensional projection P_j x and projected velocity P_j A x.",
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   "id": "r-7c616040c25f",
   "title": "Reality revision 1.58 — Frozen hydrogen-isotope holdout",
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   "series": "theory-revisions",
   "version": "1.58",
   "seriesOrder": 15,
   "date": "2026-09-20",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "Latest Matter Harmony revision in the register, carried unchanged in the manuscript r-1d8715c179d2: \"Appendix BG turns one member of revision 1.57's non-identifiable interaction family into a frozen prediction.\" Revisions 1.59 and later turn to the Hydrogen Matrix Lab.",
   "question": {
    "text": "If one member of the non-identifiable Yukawa-like family is frozen, does it predict a second hydrogen–deuterium transition better than ordinary theory?",
    "basis": "editorial"
   },
   "result": {
    "text": "This is a useful negative result. The operator earns no predictive credit, but the target uncertainty is 51.326 times its predicted effect, so the model is not excluded either.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "The historical measurement cannot distinguish the two models. The result uses public 1997 data and is not described as blind or prospective.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Next, rank unscored transitions by frozen operator contrast divided by full correlated uncertainty. A worthwhile validation target must have enough resolution to distinguish the models before its central value is examined.",
    "basis": "source"
   },
   "abstract": {
    "text": "Revision 1.57 proved that one H--D 1S--2S residual cannot identify both the range and coupling of a Yukawa-like central operator. Revision 1.58 freezes a single member of that family and asks whether it predicts a second transition.",
    "basis": "editorial"
   },
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     "id": "r-7aa233486073",
     "basis": "series order (mechanical)"
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   ],
   "ledTo": [
    {
     "id": "r-8932ff1185c8",
     "basis": "revision number precedes manuscript version (mechanical)"
    }
   ],
   "source": {
    "url": "archive/7c616040c25f-Reality_Revision_1.58.md",
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    "headings": 1,
    "figures": 0
   },
   "provenance": {
    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/The Theory of Reality/Matter Harmony Lab/Reality_Revision_1.58.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
   },
   "attachments": []
  },
  {
   "id": "r-4286df93f3ee",
   "title": "Claim ledger — Matter Harmony Lab 1.5.0",
   "titleBasis": "source",
   "type": "claim-ledger",
   "project": "matter",
   "projects": [
    "matter"
   ],
   "projectBasis": "Explicit project source citation",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-20",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "This is the claim ledger of release 1.5.0, the latest Matter Harmony Lab release in the register; its final rows cover the 1.5.0 holdout, e.g. MH-106 \"The frozen operator improves the ordinary 2S-8S prediction.\" (status Rejected).",
   "question": {
    "text": "Which claims of the Matter Harmony Lab, from pentane boiling points to the hydrogen-isotope holdout, are supported, rejected, untested or not claimed?",
    "basis": "editorial"
   },
   "result": {
    "text": "No residual is assigned to God, an extra dimension, or a missing string particle. A residual is evidence that the declared predictor is incomplete.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "The central physical hypothesis (MH-007, hidden-dimensional interference geometry) is listed as untested. The holdouts use public reference data, not new measurements.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "Which transition has a frozen operator contrast large enough, against full correlated uncertainty, to discriminate the models before its value is seen?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "No residual is assigned to God, an extra dimension, or a missing string particle. A residual is evidence that the declared predictor is incomplete.",
    "basis": "editorial"
   },
   "ledFrom": [],
   "ledTo": [],
   "source": {
    "url": "archive/4286df93f3ee-Matter_Harmony_Claim_Ledger.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
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    "authorBasis": "Collection attribution; original record retains its own credits"
   },
   "attachments": []
  },
  {
   "id": "r-03af7a213e27",
   "title": "At / Fr harmonic follow-up",
   "titleBasis": "source",
   "type": "report",
   "project": "matter",
   "projects": [
    "matter"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-21",
   "dateBasis": "saved",
   "declaredDates": [
    "Analysis date: 21 September 2026. Protocol: AT-FR-ALIGNMENT-03."
   ],
   "status": "corrected",
   "statusBasis": "r-07cef9ed332f corrects how this report's plot was presented: \"That earlier plot should have labeled the deterministic coordinate dependence explicitly.\" The repeating slopes come from the log note mapping. The report's data and conclusions are kept.",
   "question": {
    "text": "Does the narrow At/Fr note-offset cluster seen after inspecting the element chart persist across additional measured At and Fr transitions?",
    "basis": "editorial"
   },
   "result": {
    "text": "The original narrow alignment does not generalize as a common offset across the additional transitions examined.",
    "basis": "source"
   },
   "checks": {
    "text": "Run python3 calculate.py, then python3 audit.py. Only Python 3.11+ standard-library features are needed for the calculation and arithmetic audit. python3 build_report.py additionally needs matplotlib. Source URLs and hashes are recorded; full third-party papers are not redistributed. If sources/Teigelhoefer2012.txt is available from pdftotext -layout on the linked thesis, audit.py also repeats the 45-branch PDF text check; otherwise it explicitly reports that check as unavailable. The included AUDIT.json records the completed source check for this run.",
    "basis": "source",
    "sourceSection": "source-h-7"
   },
   "limits": {
    "text": "This is a calculation using published spectroscopic measurements. It is not a new laboratory experiment, proof of randomness, or a test of every transition or material state.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "fix a dimensionless frequency-ratio relation and its tolerance for named transitions before inspecting additional measurements; then test another unused electronic series with proper treatment of fine/hyperfine and isotope structure.",
    "basis": "source"
   },
   "abstract": {
    "text": "The original narrow alignment does not generalize as a common offset across the additional transitions examined. One additional At entry has a nominal offset of +22.118469 cents, but its sensitivity envelope crosses the fixed target boundary. The four new Fr transitions have offsets −1.813563, +14.005259, +18.245693 and +26.252356 cents. A shared correction that brings one of these values to zero cannot bring all four to zero.",
    "basis": "editorial"
   },
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     "basis": "reading (verified)",
     "quote": "as retained in the audited At/Fr input extraction",
     "quoteFrom": "r-6df375e4347b"
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   "source": {
    "url": "archive/03af7a213e27-At_Fr_Followup_Report.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
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  },
  {
   "id": "r-435b7200338e",
   "title": "Do atomic spectra share a musical correction factor?",
   "titleBasis": "source",
   "type": "report",
   "project": "matter",
   "projects": [
    "matter"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-21",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "No later record replaces or withdraws it. r-92f68f02a2fa reanalyses its data without changing it: \"The saved source study records exclusions, source pages, air-to-vacuum conversion, and the corrected phosphorus parser. Those files are unchanged.\"",
   "question": {
    "text": "Does one shared multiplier move atomic spectral lines, transposed down 40 octaves, closer to equal-tempered notes across the NIST Strong Lines catalogue?",
    "basis": "editorial"
   },
   "result": {
    "text": "The fitted factor improved the training sample slightly but did not improve the held-out elements.",
    "basis": "source"
   },
   "checks": {
    "text": "Python 3.10+ and NumPy are required. This bundle is offline: no downloads or credentials are needed. From its directory: The analysis refuses an existing output directory. The audit reads the shipped release_corrected/ and prints its verification; it preserves the saved audit record rather than overwriting it. LINES.json contains all source entries and their exclusions, not only successful matches. PER_ELEMENT.json contains all 118 coverage rows. The precision printed by software is arithmetic precision, not claimed physical precision of every input.",
    "basis": "source",
    "sourceSection": "source-h-9"
   },
   "limits": {
    "text": "This is a negative result for this particular mapping and objective, not a denial of genuine quantum structure in atomic spectra or a test of every possible harmonic model.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "A useful expansion would freeze an observed-only sample from the larger NIST ASD, including higher charge states and explicit transition labels, before examining its note offsets.",
    "basis": "source"
   },
   "abstract": {
    "text": "21 September 2026 · HARMONIC-ELEMENTS-01 · Corrected and independently audited",
    "basis": "editorial"
   },
   "ledFrom": [],
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     "id": "r-92f68f02a2fa",
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     "basis": "reading (verified)",
     "quote": "hydrogen through einsteinium, in the earlier NIST Strong Lines study.",
     "quoteFrom": "r-92f68f02a2fa"
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   "source": {
    "url": "archive/435b7200338e-Element_Harmonic_Report.md",
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   },
   "provenance": {
    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/Element_Harmonic_Report.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
   },
   "attachments": []
  },
  {
   "id": "r-92f68f02a2fa",
   "title": "Does the nearly uniform spectrum-offset histogram hide a cylinder?",
   "titleBasis": "source",
   "type": "report",
   "project": "matter",
   "projects": [
    "matter"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-21",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "Standalone exploratory reanalysis; no later record replaces it, and it closes its own line of inference: \"Do not promote the fitted eight-element slope or modify the theory's physical claims on this result.\"",
   "question": {
    "text": "Does the nearly uniform pooled histogram of spectral note offsets hide an element-dependent circular or helical winding law?",
    "basis": "editorial"
   },
   "result": {
    "text": "The near-uniform pooled distribution is confirmed, but these checks do not support a shared cylinder-like winding law.",
    "basis": "source"
   },
   "checks": {
    "text": "Ten unit tests passed. A separate numerical implementation imported none of the main analysis helpers. It recomputed all 11,729 offsets from the saved vacuum wavelengths, rebuilt all 6,907 proximity blocks, rechecked every one of the 512 candidate slopes, reproduced all 39,996 simulated reference statistics, and matched every tail count. This is independent calculation on the same data, not independent measurements.",
    "basis": "source",
    "sourceSection": "source-h-9"
   },
   "limits": {
    "text": "Consequently, constructing this plot cannot identify a physical cylinder, an extra spatial dimension, or a frequency-generating mechanism.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Fix one predicted relationship and a family-level holdout before looking at its phases.",
    "basis": "source"
   },
   "abstract": {
    "text": "21 September 2026 · HARMONIC-CIRCLE-02 · Exploratory catalog reanalysis",
    "basis": "editorial"
   },
   "ledFrom": [
    {
     "id": "r-435b7200338e",
     "basis": "reading (verified)"
    }
   ],
   "ledTo": [],
   "source": {
    "url": "archive/92f68f02a2fa-Circular_Structure_Report.md",
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   "provenance": {
    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/Circular_Structure_Report.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
   },
   "attachments": [
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     "bytes": 334952,
     "sha256": "1cfc2fb311ead6f0ca034cd627682cc07d9e9792bb7335ea837147aa19cab373",
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   ]
  },
  {
   "id": "r-c74f4adf9d1f",
   "title": "Element-by-element harmonic comparison",
   "titleBasis": "source",
   "type": "note",
   "project": "matter",
   "projects": [
    "matter"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
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   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "Per-element companion table of r-435b7200338e, describing itself as the final corrected table: \"Current corrected results; all distances are cents\". No later record replaces it.",
   "question": {
    "text": "How does each element's set of strong lines score against equal-tempered notes, before and after the shared training-fitted factor?",
    "basis": "editorial"
   },
   "result": {
    "text": "A shared factor would require agreement and transfer, which the held-out test did not establish.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "It is NOT a validated prediction or a discovered physical property. Low-line-count optima can be essentially arbitrary.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Does the close own-offset agreement of the sparse At (two lines) and Fr (four lines) rows survive additional measured transitions?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "21 September 2026. Current corrected results; all distances are cents (100 cents = one equal-tempered semitone).",
    "basis": "editorial"
   },
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   "source": {
    "url": "archive/c74f4adf9d1f-Element_By_Element.md",
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   },
   "attachments": []
  },
  {
   "id": "r-6df375e4347b",
   "title": "Reality Render Engine — mathematical checkpoint",
   "titleBasis": "source",
   "type": "audit",
   "project": "matter",
   "projects": [
    "matter"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-21",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "Latest record of the 21 September spectral line. It postdates the slope check, which it cites (\"This is different from the previous wavelength-versus-cents plot\"), and it sets the open next step: \"The spectral graph checker can be integrated as an input gate in that workflow.\"",
   "question": {
    "text": "Is the numerical foundation for a wave-and-light renderer sound, and what can lists of spectral lines establish by themselves?",
    "basis": "editorial"
   },
   "result": {
    "text": "The numerical foundation is holding. We can continue building a testable wave-and-light renderer. The proposed higher-dimensional physical cause is still a hypothesis.",
    "basis": "source"
   },
   "checks": {
    "text": "Every signed closed loop telescopes to zero. For a graph with \\(m\\) transitions, \\(n\\) level labels and \\(c\\) connected components, there are \\(m-n+c\\) independent linear cycle constraints. Each component retains an undetermined additive energy origin. These are graph-theoretic statements; they do not reconstruct spatial electron density or identify physical dimensions.",
    "basis": "source",
    "sourceSection": "source-h-4"
   },
   "limits": {
    "text": "Consequently this equality is guaranteed by how these inputs were generated. It cannot serve as an independent experimental test of the relation.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Freeze one hydrogen emission case: specify the state preparation, interaction, line profile, observer and numerical/physical error budget.",
    "basis": "source"
   },
   "abstract": {
    "text": "21 September 2026 · SPECTRAL-CONSISTENCY-01 · standalone checker 0.1.0",
    "basis": "editorial"
   },
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   ],
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   "source": {
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    "originalPath": "/Reality_Render_Math_Check.md",
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   },
   "attachments": []
  },
  {
   "id": "r-07cef9ed332f",
   "title": "Why the dots form repeating slopes",
   "titleBasis": "source",
   "type": "note",
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   "projects": [
    "matter"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
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   "date": "2026-09-21",
   "dateBasis": "saved",
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   "status": "reference",
   "statusBasis": "Its finding is taken up unchanged by r-6df375e4347b: \"This is different from the previous wavelength-versus-cents plot: that plot's parallel branches are imposed by the logarithmic note mapping.\" No later record replaces it.",
   "question": {
    "text": "Why do the At and Fr points in the wavelength-versus-cents plot fall on repeating slopes, and is that pattern physical?",
    "basis": "editorial"
   },
   "result": {
    "text": "The apparent repeating lines follow from the plotting transformation. Every wavelength, including an arbitrary synthetic one, lies on the same predetermined branches.",
    "basis": "source"
   },
   "checks": {
    "text": "All 59 original At/Fr entries were checked against the equation without fitting any parameters. A second formula, computed directly from photon frequency, checks 1,000 arbitrary synthetic wavelengths. Both checks agree within 10⁻⁸ cents; the exact floating-point residuals are in CHECK_RESULTS.json. The zoomed figure shows every At entry from 690 to 940 nm and an equal number of synthetic points. It does not reclassify the two possible hyperfine components or change the earlier statistical counts.",
    "basis": "source",
    "sourceSection": "source-h-2"
   },
   "limits": {
    "text": "The random-wavelength control is an illustration, not a realistic statistical model of an atom and not proof that atomic wavelengths are random.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "An additional physical pattern would require a prediction about those occupied wavelengths that goes beyond this transformation, assessed on unused data.",
    "basis": "source"
   },
   "abstract": {
    "text": "The apparent repeating lines follow from the plotting transformation. Every wavelength, including an arbitrary synthetic one, lies on the same predetermined branches. No atomic model is needed to predict these branches.",
    "basis": "editorial"
   },
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    "authorBasis": "Collection attribution; original record retains its own credits"
   },
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   "id": "r-ea8e9ad72c3a",
   "title": "Matter Harmony Lab 1.5.0",
   "titleBasis": "source",
   "type": "documentation",
   "project": "matter",
   "projects": [
    "matter"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "unknown",
   "dateBasis": "unknown",
   "declaredDates": [],
   "status": "current",
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    "text": "53,200 learned parameters. Eight observer identities and relative circular anchors; learned shared phase routing; gated fast and slow recurrent states; trainable communication and global feedback; three shared-backbone prediction heads; prioritized training replay. No generating period or physical phase is passed to the student. Verified exact 32-bit forecasts on all eight contexts of the fixed 11110000 pattern after 400 updates. Numerical gradient error below 0.000006. Streaming chunks reproduce full-window outputs. Hidden sensor NaNs and caller-supplied differences cannot affect inference.",
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     "quote": "The existing runnable model was trained from scratch on the broader school. The scaled world-model proposal is not implemented or trained.",
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   "source": {
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  {
   "id": "r-288afeeb8dda",
   "title": "OCTAVE — School training and benchmark results",
   "titleBasis": "editorial",
   "type": "report",
   "project": "octave",
   "projects": [
    "octave"
   ],
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   "version": null,
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   "date": "2026-10-01",
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   "statusBasis": "This is the latest OCTAVE result in the corpus. r-288afeeb8dda closes with 'No level is automatically unlocked by these results.' No later record re-runs it.",
   "question": {
    "text": "When the runnable eight-observer model is trained from scratch on a broader pulse school, does Level 2 training improve Level 1 forecasts, and how does it compare with a dense baseline?",
    "basis": "editorial"
   },
   "result": {
    "text": "L2 improves held-out L1 bit accuracy in all three recurrent seeds: mean +1.66 percentage points. Exact L1 improves in seed 117 but declines in seeds 228 and 339: mean +2.34 points, driven by one seed.",
    "basis": "source"
   },
   "checks": {
    "text": "Final exams did not select checkpoints, alter teaching or drive training. Train bands, held-out bands, noise protocol and reproduction commands are documented in README.txt. This is a preliminary fixed-budget experiment, not a mastery or frontier-performance certificate. More updates could change the comparison. Same data/update budget does not mean same compute: architectures, learning rates and gradient clipping differ. Eight-observer superiority requires matched observer-count ablations. Complete L2 forecasts require all 64 A+B bits correct, whereas complete L1 forecasts require 32 A bits. Log loss and Brier scores appear in raw results. No uncertainty calibration is claimed. Historical recurrence/copy reference uses strong integer-lag structure and separately trained weights.",
    "basis": "source",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "This is a preliminary fixed-budget experiment, not a mastery or frontier-performance certificate. More updates could change the comparison.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Eight-observer superiority requires matched observer-count ablations.",
    "basis": "source"
   },
   "abstract": {
    "text": "Actual execution: 800.8 seconds recurrent experiment; 2.5 seconds dense comparison. Training plus final evaluation, excluding added diagnostics. 53,200 recurrent parameters; 74,306 dense parameters. Three training seeds. 600 base L1 updates + 600 per cloned branch; batch 16. 5,400 gradient updates / 86,400 example presentations per architecture across the experiment. Both branches consume the same fresh worlds; 57,600 unique generated training worlds per architecture. The existing runnable model was trained from scratch on the broader school. The scaled world-model proposal is not implemented or trained.",
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-ed0171b0bc6a",
   "title": "Spectral engine validation",
   "titleBasis": "source",
   "type": "audit",
   "project": "optics",
   "projects": [
    "optics",
    "shapes"
   ],
   "projectBasis": "Explicit project source citation",
   "series": null,
   "version": null,
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   "date": "2026-09-26",
   "dateBasis": "saved",
   "declaredDates": [
    "Validation date: 2026-09-27"
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   "status": "reference",
   "statusBasis": "mechanical v0: not part of a detected version series",
   "question": {
    "text": "Can the Rotor Spectral Studio keep the physical spectrum, the standard-observer response and the display output separate, and render direct-light scenes correctly?",
    "basis": "editorial"
   },
   "result": {
    "text": "The prototype preserves three truth layers: physical spectral state, standard-observer response, and display output.",
    "basis": "source"
   },
   "checks": {
    "text": "The reproducible demonstration in run_spectral_demo.py creates a 250–2500 nm spectrum containing UV, visible, and IR power. Its current fixture contains 39.9833% power inside the CIE table band and 60.0167% outside it. The visible projection is normalized XYZ [1.05608, 1.00000, 0.85441] and display-mapped sRGB [1.00000, 0.80277, 0.74808].",
    "basis": "source",
    "sourceSection": "source-h-8"
   },
   "limits": {
    "text": "the surrounding rotor geometry remains a model for inspection rather than an electromagnetic field solution.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Its 'not implemented yet' list (vector Maxwell solver, polarisation, diffraction) sets the next build; v0.3 (r-c300050706ec) adds a Yee-grid diffraction mode.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "The prototype preserves three truth layers: physical spectral state, standard-observer response, and display output. It now also renders a sphere, block, table, and moving shadows from an explicit direct-light model. The numerical matrix engine still reconstructs every benchmark at floating-point precision, while the light module passes wavelength, observer, energy, colour, interference, and scene-behavior tests.",
    "basis": "editorial"
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     "quote": "The earlier sphere-and-block tab continues to use direct-light ray tracing and does not secretly gain wave scattering.",
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   "id": "r-c300050706ec",
   "title": "Maxwell diffraction build — v0.3",
   "titleBasis": "source",
   "type": "audit",
   "project": "optics",
   "projects": [
    "optics"
   ],
   "projectBasis": "Explicit project source citation",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-27",
   "dateBasis": "saved",
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   "status": "current",
   "statusBasis": "r-c300050706ec is the latest indexed build of the Rotor Spectral Studio (\"Maxwell diffraction build — v0.3\"), and it states that \"`node tools/check_optics.cjs`: existing ray optics checks still pass.\"",
   "question": {
    "text": "Can the studio evolve electric and magnetic fields on a staggered grid to show single- and double-slit diffraction in 2D and 3D?",
    "basis": "editorial"
   },
   "result": {
    "text": "At 1100 2D time steps, summed detector signals in relative units were zero for a closed screen, 0.0465 for one slit, and 0.1405 for two slits",
    "basis": "source"
   },
   "checks": {
    "text": "- python -m unittest discover -s tests -v: 27 checks, including the 3D Courant limit, source-free magnetic divergence, periodic plane-wave temporal recurrence, field past a 3D aperture, and standalone PNG equality. - node tools/check_maxwell.cjs: opaque screen has zero downstream detector energy; a single slit transmits; double-slit total detector intensity exceeds single-slit; the central interference lobe exceeds an adjacent trough; both polarizations are finite and transmit. - node tools/check_optics.cjs: existing ray optics checks still pass. - node --check web/maxwell.js, plus full standalone script syntax check.",
    "basis": "source",
    "sourceSection": "source-h-4"
   },
   "limits": {
    "text": "These checks establish a functioning discrete Maxwell demonstration. They do not establish convergence to a continuous solution or experimental agreement.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Convergence to a continuous solution and agreement with experiment remain untested; the outer boundary is a lossy sponge rather than a perfectly matched layer.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "The Diffraction lab tab evolves electric and magnetic fields on a 224 × 144 staggered Yee grid in real time. Select zero, one, or two slits; vary aperture width and spacing, wavelength, and TMz/TEz polarization. The source is coherent and monochromatic. Each cell is 30 nm wide, so changing wavelength changes the physical ratio of wavelength to slit geometry. The detector plot is an average of electric-field intensity over roughly six optical periods. The field picture overlays a little instantaneous amplitude on the averaged intensity; the carrier is never stepped at a human playback rate.",
    "basis": "editorial"
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  },
  {
   "id": "r-0e49c4b376ca",
   "title": "Dimensional Market State v6",
   "titleBasis": "source",
   "type": "note",
   "project": "prng-markets",
   "projects": [
    "prng-markets"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "r-0e49c4b376ca is a standalone method note that replaces an earlier, unregistered test: \"The previous test was rejected because it projected each bar to UP/DOWN before the relational analysis.\"",
   "question": {
    "text": "If each completed OHLCV bar is kept as a multidimensional state rather than projected to UP/DOWN, can a nearest-analogue decoder predict the next numeric return?",
    "basis": "editorial"
   },
   "result": {
    "text": "The record is a method specification only: 50 base coordinates, two relational-difference layers, a nearest-analogue decoder and a walk-forward rule. It reports no outcome.",
    "basis": "editorial"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "No accuracy, baseline comparison or uncertainty appears in this record; the single test uses 448 training states and 46 hidden future states.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "Do the walk-forward predictions beat simple baselines on the hidden future and across the 100 repeated windows? The record does not say.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "The previous test was rejected because it projected each bar to UP/DOWN before the relational analysis.",
    "basis": "editorial"
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    "url": "archive/0e49c4b376ca-METHOD.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
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    "authorBasis": "Collection attribution; original record retains its own credits"
   },
   "attachments": []
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  {
   "id": "r-370642ea780a",
   "title": "Dimensional PRNG Tomography v4 — Formal Core",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "prng-markets",
   "projects": [
    "prng-markets"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-08-23",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "r-370642ea780a is standalone; no later PRNG tomography record is in the register, and it sets its own open benchmark: \"That is the next benchmark.\"",
   "question": {
    "text": "Can relational transforms expose a low-complexity generating law from observed outputs?",
    "basis": "source"
   },
   "result": {
    "text": "So a recurrence nonlinear in state becomes a **linear inverse problem in a lifted relational feature space**.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "The individual ingredients here are established mathematics: finite-field recurrences, finite differences, feature lifting, LFSRs, Berlekamp-Massey, and xorshift linearity.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Novelty would require the **unified relational operator search** to infer unknown generator families more efficiently or from weaker observations than existing system-identification methods.",
    "basis": "source"
   },
   "abstract": {
    "text": "The goal is not to claim that deterministic pseudorandom output is secretly easy to predict. A PRNG is deterministic by definition. The meaningful question is: This version targets deliberately non-cryptographic families: LFSRs, polynomial congruential recurrences, and xorshift32.",
    "basis": "editorial"
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    "url": "archive/370642ea780a-THEORY.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/THEORY.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
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   "attachments": []
  },
  {
   "id": "r-a5335a10ec56",
   "title": "Independent certificate verification",
   "titleBasis": "source",
   "type": "note",
   "project": "rbe",
   "projects": [
    "rrls"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-04",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "Still used, not replaced: r-8cbc00e49b56's director independently rechecked \"The portable certificate's 1,023 RH base cases and its stated restricted tail constants.\"; r-0aae1663eca5 notes \"The v0.12 portable verifier retains its original scope\".",
   "question": {
    "text": "Can the v0.11 results be accepted by a separate program that imports none of the producing code and rejects deliberately corrupted certificates?",
    "basis": "editorial"
   },
   "result": {
    "text": "The valid certificate passed. All 26 deliberate corruptions were rejected.",
    "basis": "source"
   },
   "checks": {
    "text": "Reality Bit Engine 0.12.0 — 4 September 2026 Research framework: Anthony Michael Collado Status: Independently implemented algorithmic verification of scoped results. No Millennium solution or formal proof-kernel verification is claimed.",
    "basis": "source",
    "sourceSection": "source-h-1"
   },
   "limits": {
    "text": "These are finite adversarial tests. They are not an exhaustive proof that the parser or verifier has no defects.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Which additional test would distinguish the claim in “Independent certificate verification” from the alternatives allowed by its assumptions?",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "abstract": {
    "text": "Reality Bit Engine 0.12.0 — 4 September 2026 Research framework: Anthony Michael Collado Status: Independently implemented algorithmic verification of scoped results. No Millennium solution or formal proof-kernel verification is claimed.",
    "basis": "editorial"
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     "basis": "reading (verified)",
     "quote": "The v0.12 portable verifier retains its original scope; its previous acceptance does not certify this new, broader computation.",
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     "quote": "The portable certificate's 1,023 RH base cases and its stated restricted tail constants.",
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  {
   "id": "r-0aae1663eca5",
   "title": "Missing mathematical arguments: reductions and obstructions",
   "titleBasis": "source",
   "type": "note",
   "project": "rbe",
   "projects": [
    "rrls"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
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   "date": "2026-09-04",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "Preserved, not replaced, by r-8cbc00e49b56: \"The historical \\(10^{24}\\) RH result remains preserved with its written reduction and implementation dependencies; this release does not rerun or upgrade it to formal verification.\"",
   "question": {
    "text": "Can the gaps left by v0.11 be narrowed: the two-prime restriction on the Lagarias check, a SAT summarisation route, and universal fluid energy estimates?",
    "basis": "editorial"
   },
   "result": {
    "text": "Monotonicity and canonical/record reductions cover all integers up to a specified cutoff; the run certifies through \\(10^{24}\\)",
    "basis": "source"
   },
   "checks": {
    "text": "On Windows, use py -3 in place of python3. The default cutoff is already \\(10^{24}\\). The implementation caps the permitted cutoff there to bound this prototype's resource use; raising that cap would require a fresh coverage and precision assessment.",
    "basis": "source",
    "sourceSection": "source-h-18"
   },
   "limits": {
    "text": "This result is a finite computer-assisted verification, not RH, and is not claimed as a new verification record.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "bound the record values for the entire infinite sequence, with an error estimate strong enough to compare them with \\(B_n\\).",
    "basis": "source"
   },
   "abstract": {
    "text": "Reality Bit Engine 0.13.0 — 4 September 2026 Research framework: Anthony Michael Collado Status: Written mathematical arguments with exact computational support. No novelty, formal-kernel verification, or Millennium solution is claimed.",
    "basis": "editorial"
   },
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     "quote": "the already-refuted fixed \\(c<\\gamma\\) route is not repaired by increasing its cutoff",
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   "id": "r-1e48abf03e8b",
   "title": "Proof attempts for three Millennium problems",
   "titleBasis": "source",
   "type": "proof-attempt",
   "project": "rbe",
   "projects": [
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   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-04",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "r-a5335a10ec56 rechecks and keeps its arguments rather than replacing them: \"The number-theoretic product estimate and convexity argument extending the result to all integers with at most two distinct prime factors remain written proofs in `PROOF_ATTEMPTS.md`.\"",
   "question": {
    "text": "What can actually be proved on the way to RH, P versus NP and Navier–Stokes, and exactly where does each attempted route stop?",
    "basis": "editorial"
   },
   "result": {
    "text": "Inequality (R) holds for every positive integer with at most two distinct prime factors.",
    "basis": "source"
   },
   "checks": {
    "text": "From the extracted project root, with Python 3.10 or later: The new companion uses only the Python standard library and does not require the C++ executable. The existing C++ build instructions remain in README.md. The frozen result is results/proof-routes-v1.json; it records the source and proof-document SHA-256 values, exact base-case intervals, SAT histograms, rational fluid identities, and explicit false flags for resolution of all three Millennium problems.",
    "basis": "source",
    "sourceSection": "source-h-15"
   },
   "limits": {
    "text": "The restricted theorems are presented with proofs and executable arithmetic support. They are not claimed to be new to mathematics. The remaining all-input proof obligations in the opening table remain unresolved.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Can these restricted results be checked by independent code, and can the gaps (all prime supports, general SAT, a global fluid estimate) be narrowed?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown",
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    "text": "This revision adds a sufficient condition that certifies an entire solution remains smooth for every future time.",
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    "text": "Can a sharper error bound and a reference retaining nonlinear interactions certify larger perturbations of the shear that the v0.16 bound left unresolved?",
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    "text": "With the sharper bound and an eighteen-mode nonlinear reference, the ε = 0.1 perturbed shear received an independently accepted all-time certificate; ε = 0.5 stayed unresolved.",
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    "text": "Extract the engine archive. Python 3.10 or later and its standard library suffice; these research companions require no C++ compilation or third-party package. On Windows, replace python3 with py -3.",
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    "text": "The result expands this engine's verified coverage. It neither establishes a new regularity class in the literature nor resolves arbitrary large-data Navier–Stokes regularity.",
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    "text": "The next concrete research target is the frozen \\(\\varepsilon=0.5\\) failure.",
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    "text": "Engine: 0.17.0 Date: 5 September 2026 Evidence: Written sufficient PDE argument, exact rational certificates, standalone checking, and fixed-input comparisons. No formal-kernel verification or mathematical novelty claim.",
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    "text": "The common task is to find a description that retains enough information to justify a claim under every extension allowed by that claim.",
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    "text": "Subject to the stated analytic dependencies, (5) supplies global smoothness for this particular input. It expands the engine's sufficient-certificate coverage.",
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    "text": "Extend certificates to neighborhoods or families of initial data with verified uniform bounds, or improve the norm/control estimate; pointwise successes alone do not cover all data",
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    "text": "Reality Bit Engine 0.18.0 — 5 September 2026 Originating research framework: Anthony Michael Collado Status: Implemented research methods, written sufficient arguments, independently checked scoped certificates, and explicit unresolved universal obligations.",
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    "text": "Suppose a smooth reference \\(v\\), on a finite time interval \\([0,T]\\), has certified bounds \\(V(t)\\le\\overline V(t)\\) and \\(R(t)\\le\\overline R(t)\\). Put",
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    "text": "The permitted perturbation shrinks exponentially with the background amplitude in this conservative estimate. Arbitrary large-data regularity remains outside its scope.",
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    "text": "158 affine segments keep the certified error below 0.000045 through time 4.",
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    "text": "This datum is already within v0.15's shear-perturbation theorem; we do not claim a newly discovered mathematical input class from this example.",
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    "text": "Can the seven-layer Projective Ripple Reality framework be made executable as exact bit-level software, and where do its finite certificates stop short of general claims?",
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    "text": "The software demonstrates that the algebra is executable.",
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    "text": "It does not establish that nature has exactly seven layers, that the selected ULPs are fundamental physical quanta, that the optional biblical time scale is a physical conversion, or that external authorization can be measured by the program.",
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    "text": "Which universal argument, beyond bounded finite certificates, could close any of the three prize targets that the engine records as missing steps?",
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    "text": "The second tests whether higher-order collisions and same-speed temporal resonance add discriminative information about exact defect languages.",
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    "text": "- one-tone anchor exactness: 37.9%; - one-tone naive depth exactness: 44.6%; - universal-cycle anchor exactness: 93.0%; - universal-cycle depth exactness: 100%; - universal-cycle orientation MAE: 0.61°.",
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    "text": "None of this proves P=NP, because the current exact relational responses are obtained by exponential finite enumeration.",
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    "authorBasis": "Collection attribution; original record retains its own credits"
   },
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   "title": "Theory of Reality — revision 1.14",
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   "statusBasis": "mechanical v0: a later release exists in theory-revisions",
   "question": {
    "text": "Can the earlier seven-stage refinement theorem stand, and what can a declared catalogue of experiments actually identify about modelled causes?",
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   "result": {
    "text": "The old conditional statement had no instance satisfying all its premises. It consequently supplied no evidence for a seven-stage physical hierarchy.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
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    "text": "These are synthetic tests and exact finite computations. This revision adds no real physical measurements.",
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    "text": "The next physical step needs a calibrated actuator, known path modification, synchronized sensors, and an attachment whose response remains unchanged by that modification.",
    "basis": "source"
   },
   "abstract": {
    "text": "5 September 2026 · Anthony Michael Collado's research framework Companion: Rope Tomography Lab 0.2.0 Evidence: written mathematical arguments and synthetic experiments.",
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     "quote": "Revision 1.14's idempotent complete deterministic closure and revision 1.15's sampled non-crossing",
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   "id": "r-fe52db8f3602",
   "title": "Reality Revision 1.39 — Anytime evidence for a declared Markov sign model",
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    "Date: 20 September 2026"
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    "text": "Can an anytime-valid detector for residual signs stay valid when the signs are dependent, as the v1.26 counterexample showed for the earlier iid engine?",
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    "text": "The v1.26 dependence counterexample is resolved only within one explicit model class.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
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    "text": "It does not cover a null matrix estimated from scored data, changing persistence, higher-order dependence, or an average transition frequency.",
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    "text": "Next test: derive a composite-null e-process valid uniformly for every prespecified persistence in ([0.88,0.92]), then challenge it at both boundaries and on non-Markov dependent signs before changing the point-null engine.",
    "basis": "source"
   },
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    "text": "The v1.26 dependence counterexample is resolved only within one explicit model class. Conditional on the first nonzero sign, the nonzero projected-residual signs must form a fixed first-order homogeneous binary Markov chain. For a declared transition matrix (P_0), a past-only Krichevsky--Trofimov predictor (widehat Q_t) gives",
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   "title": "Universal-Cycle Tomography: a causal boundary model and its limits",
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    "text": "Can the rope-and-hairs proposal, a boundary drive read by attached sensors, recover hidden coordinates such as delay, depth or source count from measurements?",
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   "result": {
    "text": "A calibrated source and a restricted, correct response model can allow delay estimation and prediction at frequencies not used for fitting. An arbitrary unknown source and arbitrary response functions cannot supply unique hidden coordinates.",
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   "checks": {
    "text": "The next empirical step is a defined physical system with a calibrated actuator and synchronized sensors. Specify the propagation law, admissible attachment responses, noise model, and competing models before fitting. Vary the input deliberately, fit on one set of trials, and predict withheld frequencies or time sequences without refitting. Use physically justified bounds on delay, gain, and local response; retain alternative parameterizations that remain observationally equivalent.",
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    "text": "All observations in this laboratory are synthetic. No physical experiment or observation of additional dimensions is claimed.",
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    "text": "The next empirical step is a defined physical system with a calibrated actuator and synchronized sensors.",
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    "text": "Revision companion: Reality_Revision_1.14.md and Rope Tomography Lab 0.2.0 add a finite intervention selector and correct the main paper's repeated-closure argument. The original experiments below remain the earlier record; new observations are stored separately in results-design/.",
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   "title": "Rope Tomography Lab",
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   "question": {
    "text": "Can candidate models of the rope-and-attachments system be rejected with anytime-valid sequential evidence rules whose guarantees and failure boundaries are stated exactly?",
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    "text": "With a fixed 90%-persistence null, the written martingale proof gives a 1% anytime crossing bound. Fresh 400-look synthetic validation crossed on 39/5,000 declared-null histories, versus 4,134/5,000 for the old iid-sign rule whose conditional-balance assumption is false there.",
    "basis": "source"
   },
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    "text": "Tested on Python 3.12.13, NumPy 2.3.5, and SciPy 1.17.0. Install the pinned environment, then run: On Linux/macOS, use python3 in place of py -3.12. Re-running the experiment overwrites results/. The recorded run used OPENBLAS_NUM_THREADS=1 and OMP_NUM_THREADS=1. Timings and floating-point rounding can vary across machines and numerical libraries.",
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    "sourceSection": "source-h-14"
   },
   "limits": {
    "text": "The engine is not valid for a same-data estimate, changing persistence, higher-order dependence, or merely marginal balance. It ignores magnitudes and is neither distribution-free nor a physical-mechanism identifier.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Can the declared sign and Gaussian evidence rules be applied to a calibrated physical rope or sensor system rather than synthetic histories?",
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   "abstract": {
    "text": "The transition matrix must be fixed before scoring and correct conditionally at every transition in nonzero-sign event time. The engine is not valid for a same-data estimate, changing persistence, higher-order dependence, or merely marginal balance. It ignores magnitudes and is neither distribution-free nor a physical-mechanism identifier.",
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    "authorBasis": "Collection attribution; original record retains its own credits"
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   "id": "r-19549c402f21",
   "title": "RRLS Studio v0.7",
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    "rrls"
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   "status": "superseded",
   "statusBasis": "r-233707f9fb01 replaces the v0.7 number-pattern launcher with the v0.12 research hub: \"Earlier bundles contained newer engine modules but the classic number-pattern GUI still\"",
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    "text": "Can a finite-pattern engine keep validated relations as a reusable vocabulary and replay them on new inputs faster than rediscovering them?",
    "basis": "editorial"
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   "result": {
    "text": "Replaying a stored order-13 XOR relation on a new initial state ran about 9.1 times faster than cold rediscovery, with exact held-out validation; the speed-up was measured on one container.",
    "basis": "editorial"
   },
   "checks": {
    "text": "A stored relation is never accepted merely because it was seen before. RRLS fits or replays a relation on the training prefix and requires exact prediction of the hidden suffix before labeling it validated.",
    "basis": "source",
    "sourceSection": "source-h-12"
   },
   "limits": {
    "text": "A finite sequence can admit multiple exact continuations.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "continuously expand the relation/transform vocabulary while making exact validated relations progressively cheaper to recover and compose.",
    "basis": "source"
   },
   "abstract": {
    "text": "Relational Rotation / Lift / Collapse Solver — persistent vocabulary edition",
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   "title": "RRLS v0.8 Universal Corpus Experiment",
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   "date": "2026-09-05",
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   "status": "superseded",
   "statusBasis": "r-451033824569 replaces the in-memory corpus lab: \"The previous Universal Corpus Lab held its working corpus in memory. v0.9 uses SQLite:\"",
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    "text": "Does a recursive phrase vocabulary, given no semantic labels, find structure shared across text, code, DNA-like, numeric and image data?",
    "basis": "editorial"
   },
   "result": {
    "text": "The stronger universal layer appears after removing literal symbol identity and grouping learned words by relationship geometry.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
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   "limits": {
    "text": "The benchmark data is controlled/generated rather than a representative web-scale natural corpus.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "v0.8 therefore adds a Universal Corpus Lab so arbitrary real files can be supplied and future relation operators can be compared against this baseline.",
    "basis": "source"
   },
   "abstract": {
    "text": "The controlled benchmark deliberately mixes unrelated coordinate families:",
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     "quote": "A v0.8 hierarchy trained on one 11 MiB heterogeneous corpus was frozen and applied to an independently generated 11 MiB corpus",
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    "url": "archive/95b0a3b2973e-RRLS_v08_EXPERIMENT_REPORT.md",
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   "id": "r-451033824569",
   "title": "RRLS v0.9 — Common Crawl Web-Corpus Mode",
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   "projects": [
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   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in rrls-studio",
   "question": {
    "text": "Can the corpus compiler scale to Common Crawl web text, with whole hosts held out, so vocabulary is tested on unseen sites?",
    "basis": "editorial"
   },
   "result": {
    "text": "Built a bounded Common Crawl WET sampler and an SQLite external-memory compiler; only an offline systems test on locally generated WET data ran, parsing at 42.40 MiB/s.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown",
    "withheld": "wording not suitable for a summary; see the source"
   },
   "limits": {
    "text": "the network ingestion path could not be truthfully benchmarked here against live WET shards.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "A candidate 'web language' should survive not only unseen hosts but also a later crawl.",
    "basis": "source"
   },
   "abstract": {
    "text": "Common Crawl is a free open repository of web-crawl data. The current Common Crawl index at packaging time is CC-MAIN-2026-34 (August 2026). Common Crawl reports that the August archive contains about 2.14 billion web pages / 360 TiB uncompressed.",
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   "title": "RRLS v0.10 Research Report",
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   "projects": [
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   "status": "superseded",
   "statusBasis": "r-b130d67684d1 inherits and extends its corpus machinery: \"disk-backed WET sampling and host-disjoint corpus management inherited from v0.10\"",
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    "text": "Under deduplication, host-disjoint validation, held-out-only MDL and standard compressor baselines, does the RRLS vocabulary still pay for itself?",
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   "result": {
    "text": "Again, standard compression wins. This rejects the hypothesis that the current phrase vocabulary is already a superior general compressor.",
    "basis": "source"
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   "checks": {
    "text": "To avoid relying only on generated corpora while live Common Crawl binaries are blocked in this execution environment, v0.10 was also run on 48.17 MiB of actual installed system data from the runtime: Python source/library files, system documentation and icon/image assets.",
    "basis": "source",
    "sourceSection": "source-h-4"
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   "limits": {
    "text": "The current binary sandbox cannot fetch WET objects, so no Common Crawl compression number is reported from this environment.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Evidence for something genuinely new would require the relational hierarchy to discover compact transferable operators that are not explained by established grammar/dictionary compression",
    "basis": "source"
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   "abstract": {
    "text": "v0.10 is a stricter research build rather than a compression-ratio showcase.",
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   "id": "r-b130d67684d1",
   "title": "RRLS v0.11 — Support-Gated Predictive Relations",
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   "declaredDates": [],
   "status": "superseded",
   "statusBasis": "mechanical v0: a later release exists in rrls-studio",
   "question": {
    "text": "make every proposed relational lift pay for itself on held-out data under a valid coding model.",
    "basis": "source"
   },
   "result": {
    "text": "So the valid lift from order 2 to order 3 is small but positive under full model cost.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "a simple recursive phrase vocabulary plus support-gated Markov relations is not yet a superior general compressor.",
    "basis": "source"
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   "nextQuestion": {
    "text": "Each operator must compete against RAW, zlib and LZMA, and every learned model must transfer to unseen source groups/crawls without content-digest overlap.",
    "basis": "source"
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    "text": "v0.11 is a falsification/repair release. The goal of this loop was not to maximize a headline compression number; it was to make every proposed relational lift pay for itself on held-out data under a valid coding model.",
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   "title": "RRLS Studio v0.12 — Exact Operator Market",
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   "question": {
    "text": "Does choosing a reversible coordinate transform per block add compression beyond simply picking the best standard coder?",
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    "text": "The transform contribution is small but positive on this held-out set.",
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    "text": "Input: - 8,377,100 held-out bytes - 1,569 independent blocks - actual Python/library/docs/icons/binary material from the execution runtime",
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    "sourceSection": "source-h-4"
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    "text": "The measured +0.421% transform gain is dataset-dependent and needs replication.",
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    "text": "The strongest next experiment is frozen transform/operator transfer across separate real corpora and separate Common Crawl months.",
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    "text": "Earlier bundles contained newer engine modules but the classic number-pattern GUI still displayed RRLS Studio v0.7, and the default launch_windows.bat opened that legacy window directly.",
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   "title": "RRLS v0.13 — P≟NP Proof Search",
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   "projects": [
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    "text": "Can RRLS's lift-compile-collapse method remove branching from SAT search, and what exactly would a P=NP proof along this route require?",
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    "text": "The 40-pigeon contradiction is therefore one matching dispatch instead of a DPLL tree.",
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    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
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    "text": "General random 3-SAT still generated irreducible cores and branch nodes after all current exact reductions.",
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   "nextQuestion": {
    "text": "the next loop should mine the irreducible general-3SAT cores for a new polynomially recognizable algebra.",
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    "text": "This release deliberately introduces a proof gate that remains closed while the uniform general-CNF algorithm can reach a binary branch/lift operation.",
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   "statusBasis": "r-080f17275b94 takes up its boundary-relation idea: \"That directly confirms the v0.14 \"boundary relation\" insight.\"",
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    "text": "Is the missing link another local Boolean relation, a lift to more coordinates, or information held only in higher-dimensional joint structure?",
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    "text": "This is an exact finite demonstration of information stored only in the joint fiber of the higher-dimensional relation and erased by every pairwise projection.",
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    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
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    "text": "So merely adding more coordinates is not enough. A useful lift must add a genuinely new invariant or global relation, not redundant copies of the same algebra.",
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    "text": "The next operator market should search representations of B_R rather than search only assignments.",
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    "text": "v0.14 materially narrows the RRLS hypothesis. The current evidence says the missing link is not another small local Boolean relation and not naive repeated monomial lifting.",
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   "title": "RRLS v0.14 — Absolute P≟NP Attempt",
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   "statusBasis": "mechanical v0: a later release exists in rrls-studio",
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    "text": "Does rotating every local relation so that one valid state becomes zero make SAT easy?",
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    "text": "So the rotation idea is exact, but it moves complexity from the local relations to their gluing law.",
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    "text": "Every local relation is nonempty and can be zeroed. Pairwise arc consistency also survives. Yet the odd cycle has no global assignment.",
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    "text": "That is not an asymptotic proof, but it explains why fixed-width factor elimination does not rescue these instances",
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    "text": "What fixed, uniform, polynomial-time invariant of global frame synchronisation resolves Schaefer-hard, unbounded-width cores without branching?",
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    "text": "It produces a sharper, machine-auditable statement of where the proposed rotation/lift/compiler strategy succeeds and where the unresolved complexity remains.",
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   "title": "RRLS v0.15 — The Knowledge-Compilation Wall",
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   "statusBasis": "r-25cddfb8e1cd is the next release, moving to proof complexity: \"This release identifies a much sharper equivalence between RRLS and classical proof complexity.\"",
   "question": {
    "text": "Is a short description of a boundary relation enough, or must the representation also stay cheap under every operation the solver performs?",
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   "result": {
    "text": "hardness can move between representation size and operation cost without disappearing.",
    "basis": "source"
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    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
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    "text": "No such universal path theorem is known or proved here.",
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    "text": "v0.16 should stop scoring representations primarily by compressed byte count.",
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    "text": "v0.15 found a stronger formulation of the missing link: > A short description is insufficient. RRLS needs an exact representation that is > simultaneously compact and closed under the reasoning operations required by the > computation.",
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   "title": "RRLS v0.16 — Extension Synthesis Is the Wall",
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   "statusBasis": "r-c2959fe23319 folds the extension-synthesis wall into its three-wall synthesis: \"RRLS vocabulary tokens are analogous to extension variables in strong proof systems.\"",
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    "text": "Is RRLS's habit of naming discovered relations as reusable tokens the missing link, or has proof complexity already covered it?",
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    "text": "A polynomially bounded proof language whose proofs are not efficiently discoverable does not give a polynomial-time SAT algorithm.",
    "basis": "source"
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   "checks": {
    "text": "Even tiny-looking operator classes have exponentially many possible definitions.",
    "basis": "source",
    "sourceSection": "source-h-5"
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    "text": "For general SAT, no universal polynomial canonicalizer/extension synthesizer is known.",
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    "text": "The unresolved research question is whether general SAT admits a finite/polynomially indexable portfolio of such canonicalizers with universal closure.",
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    "text": "This release identifies a much sharper equivalence between RRLS and classical proof complexity.",
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   "title": "RRLS v0.17 — The Fiber Occupancy Wall",
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    "text": "Can a reversible coordinate change that makes the defining equation simple, or moves a solution onto the zero axis, make SAT easy?",
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    "text": "Therefore a universal \"rotate the solution onto the zero axis\" compiler is not a free geometric trick. It is already a polynomial-time SAT algorithm.",
    "basis": "source"
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    "text": "v0.17 incrementally conjoined random 3-SAT clauses and measured exact ANF/Fourier structure.",
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    "sourceSection": "source-h-7"
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    "text": "This is not an asymptotic lower bound on SAT.",
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    "text": "The unknown object would be the analogue of \"rank\" for arbitrary SAT.",
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    "text": "v0.17 finds the sharpest formulation of the RRLS wall so far.",
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   "title": "RRLS v0.18 — Algebraic Rank Wall",
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   "statusBasis": "r-399db0176f55 replaces the monomial basis that capped here: \"In v0.18, PHP 5->4 in the standard Boolean Macaulay hierarchy reached:\"",
   "question": {
    "text": "Does an exact Boolean Nullstellensatz rank over GF(2) give a usable global emptiness test, and can coordinate rotations lower its degree?",
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    "text": "This is a significant correction to the earlier RRLS intuition. Linear coordinate rotation can reveal sparse formulas such as parity, but it cannot lower this particular algebraic proof-degree invariant.",
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   "checks": {
    "text": "The experiment is now directly in the territory of Polynomial Calculus, Nullstellensatz, Gröbner-basis algorithms and Ideal Proof System research.",
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    "sourceSection": "source-h-8"
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    "text": "The last item is a resource-capped experiment, not a degree lower-bound proof.",
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    "text": "The remaining challenge is to find a basis family that adapts as powerfully as RRLS wants without hiding exponential work in basis discovery or basis size.",
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    "text": "v0.18 identifies an exact global fiber-occupancy invariant for Boolean CNF and then measures the cost of making it complete.",
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    "text": "Can a feature basis synthesised from clause structure alone replace the exploding monomial basis on hard structured families?",
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    "text": "The feature count is linear in the recovered assignment geometry rather than combinatorial in the raw monomial degree.",
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    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
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    "text": "For arbitrary 3-SAT, no universal Basis algorithm is known or proved here.",
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    "text": "Can an instance-adaptive portfolio of canonically generated feature algebras be shown complete and polynomial for every input?",
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    "text": "v0.19 breaks an important *internal* RRLS wall: the standard low-degree monomial basis is not the right universal measure of algebraic complexity.",
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   "title": "RRLS v0.20 — Structural × Algebraic Tractability Map",
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    "text": "Does a SAT instance become easy through its constraint algebra, its interaction structure, or both, and where do random 3-SAT instances fall?",
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    "text": "Bounded-window 3-SAT solved structurally at width 4; pigeonhole and 3-XOR solved algebraically despite wide structure; every tested random 3-SAT instance stayed UNKNOWN.",
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    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
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    "text": "So both of RRLS's obvious static escape directions are already deeply classified.",
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    "text": "Can irreducible expander cores be mined for global instance-specific quotients (matroid, cut/flow, spectral, tensor) that are exact and polynomial?",
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    "text": "v0.20 narrows the unexplained region into a two-axis map: constraint algebra × interaction structure.",
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   "statusBasis": "r-defbb8d6fa7e corrects its future-width measure as a syntactic over-count: \"Major conceptual correction: v0.25 future modes were syntactic\"",
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    "text": "Can exact synchronisation rules on clause-falsifier coordinates count SAT solutions while keeping the number of live states small?",
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    "text": "Four exact synchronisation levels passed 1,064/1,064 brute-force checks; merging histories with identical residual futures was strongest, compressing one n=20 snapshot 52.2-fold.",
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    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
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    "text": "None is proved polynomial for arbitrary CNF.",
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   },
   "nextQuestion": {
    "text": "Instead of merely hashing canonical residual CNFs, mine the residual-mode population for a second-level algebra:",
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    "text": "v0.25 translates the \"hairs collide, synchronize, and become collective modes\" idea into a sequence of exact Boolean counting algebras. The central result is not a proof of polynomial-time SAT, but a measured hierarchy of increasingly aggressive exact synchronization rules.",
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    "text": "v0.26 deliberately attacks RRLS itself rather than the complexity wall.",
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    "text": "26,404 live frontier assignments -> 10,302 syntactic residual CNFs -> 2 exact Boolean future functions.",
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   "checks": {
    "text": "All five exact engines returned that same arbitrary-precision integer.",
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    "text": "But reaching that snapshot had already required representing many histories.",
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   "nextQuestion": {
    "text": "compute a canonical semantic certificate of the future without evaluating its full truth table.",
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    "text": "v0.26 deliberately attacks RRLS itself rather than the complexity wall. The audit separates mathematical exactness from numerical approximation, serialization hazards, sensor quantization, cryptographic identifiers, and incomplete notions of \"same future.\"",
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    "text": "Do the v0.27 source and its dimensional-future report survive independent reproduction, and what can automatic generator discovery honestly claim?",
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   "result": {
    "text": "Therefore a finite prefix cannot certify a unique generator across every compact language.",
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   "checks": {
    "text": "6 September 2026 · Theory of Reality revision 1.15",
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    "text": "The original collision CSV does contain a 97-digit tick. Its original input tuple and benchmark-generation script were not reconstructed in this audit",
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    "text": "A physically faithful strand model additionally needs contact geometry, friction, bending/torsion energy, bonding/release rules, and continuous event handling.",
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    "text": "6 September 2026 · Theory of Reality revision 1.15",
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   "title": "RRLS v0.28 — Adversarial Generator Compiler",
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   "statusBasis": "r-04183c7d3acc takes up the wall this release exposed: \"v0.29 attacks the wall exposed by v0.28\"",
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    "text": "construct formulas that break RRLS, preserve the breakage, classify why it breaks, and refuse to confuse finite success with a complexity theorem.",
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    "text": "Every one of the five exact semantic classes in the n=36 snapshot contains at least one representative that the polynomial portfolio can solve.",
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   "checks": {
    "text": "The gate requires all of the following simultaneously: one fixed uniform deterministic exact algorithm for arbitrary SAT; rigorous worst-case polynomial time and intermediate-size proof; concrete proof artifact; independent verification.",
    "basis": "source",
    "sourceSection": "source-h-3"
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   "limits": {
    "text": "counterexample to current configured compiler, NOT counterexample to polynomial-time SAT.",
    "basis": "source"
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    "text": "Can I convert all descriptions of the same residual function into the same compact normal form, using only polynomial work?",
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    "text": "v0.28 deliberately changes the research objective from \"make RRLS look good\" to \"construct formulas that break RRLS, preserve the breakage, classify why it breaks, and refuse to confuse finite success with a complexity theorem.\"",
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    "text": "to locate every place where a claimed polynomial collapse can hide exponential work.",
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    "text": "This is a rigorous exponential lower bound for this representation on a connected 3-CNF family.",
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    "text": "rrls_v28_proof_attacker.py executes only certified polynomial routes when allow_branch=False.",
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    "text": "Every tested formula from n=20 through n=120 escaped the current polynomial portfolio.",
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    "text": "What is missing is a fixed polynomial-time semantic promotion rule Q such that for every CNF F:",
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     "quote": "At the v0.28 hard snapshots:",
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   "title": "RRLS v0.29 — Semantic Canonicalization Probe",
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    "text": "many syntactically different residual CNFs can represent only a handful of Boolean futures.",
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    "text": "A new direct CNF→ROBDD compiler canonicalizes residual functions symbolically, without first enumerating complete truth tables.",
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    "text": "v0.29 adds conservative polynomial semantic witnesses for recognized languages. Any polynomially certified UNSAT residual has semantic key FALSE. Recognized GF(2) systems can be normalized to exact RREF witnesses; 2-SAT has an implication-closure witness.",
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    "text": "It does not establish polynomial ROBDD size, polynomial good-order discovery, polynomial arbitrary-CNF equivalence, polynomial temporary compilation size, or P=NP.",
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    "text": "Can the canonical quotient of all live futures be updated locally, event by event, with polynomial time and size for arbitrary CNF?",
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    "text": "v0.29 attacks the wall exposed by v0.28: many syntactically different residual CNFs can represent only a handful of Boolean futures.",
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   "declaredDates": [],
   "status": "current",
   "statusBasis": "r-65b761028cb7 is the latest RRLS release; r-1d8715c179d2 lists it among the newest reports consulted: \"The v0.28 generator, v0.29 semantic-canonicalization, and v0.30 dual-phase reports were also consulted to avoid treating their existing results as new.\"",
   "question": {
    "text": "does observing the opposite phase add independent information?",
    "basis": "source"
   },
   "result": {
    "text": "evaluate the involution once, separate invariant and oriented components, quotient phase-equivalent descriptions, and spend computation only on structure that survives both directions.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "Phase normalization explains only a fraction of the semantic redundancy.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Can phase gauge, algebraic normal forms, structural interfaces and exact future equivalence be combined into one polynomial semantic canonicaliser?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "No claim is made that the physical universe literally expands/collapses according to this algebra.",
    "basis": "editorial"
   },
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     "id": "r-04183c7d3acc",
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    "url": "archive/65b761028cb7-RRLS_v30_DUAL_PHASE_REPORT.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/The Theory of Reality/RRLS_v30_DUAL_PHASE_REPORT.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
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   "attachments": []
  },
  {
   "id": "r-3abfc6df0612",
   "title": "A proved self-optimization step for the RE SAT engine",
   "titleBasis": "source",
   "type": "note",
   "project": "rrls",
   "projects": [
    "rrls"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
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   "date": "2026-09-05",
   "dateBasis": "saved",
   "declaredDates": [
    "Date: 2026-09-05. Revision 0.2 of the SAT structure laboratory."
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   "status": "reference",
   "statusBasis": "mechanical v0: not part of a detected version series",
   "question": {
    "text": "Can the engine learn which solving route to try from its own execution records, and can that learner be provably simplified?",
    "basis": "editorial"
   },
   "result": {
    "text": "The deployed learner returns the same policy about 2.15 times faster in the recorded run.",
    "basis": "source"
   },
   "checks": {
    "text": "The input to the second layer is the first layer's execution record: structural features, which route completed, and measured time. It is not an unexplained recursive invocation.",
    "basis": "source",
    "sourceSection": "source-h-2"
   },
   "limits": {
    "text": "This is a measured routing heuristic for the supplied training distribution.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Proof checking is now a major remaining cost.",
    "basis": "source"
   },
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    "text": "Result: the engine now learns a route policy from its own execution measurements, reuses a checked vocabulary of local relations, reduces the learned policy, and applies it to new inputs. Its policy learner was then simplified using a proved separability identity. The deployed learner returns the same policy about 2.15 times faster in the recorded run. This proves a bounded optimization claim, not P = NP.",
    "basis": "editorial"
   },
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     "id": "r-2f8e1d2a9608",
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     "id": "r-d9f96ddde453",
     "relation": "next-release",
     "basis": "reading (verified)",
     "quote": "This revision was designed from the earlier timing trace, where checking dominated several graph examples.",
     "quoteFrom": "r-d9f96ddde453"
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    "url": "archive/3abfc6df0612-SELF_OPTIMIZATION_PROOF.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/The Theory of Reality/SELF_OPTIMIZATION_PROOF.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
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   "attachments": []
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  {
   "id": "r-2f8e1d2a9608",
   "title": "Applying the RE engine to the structure inside SAT",
   "titleBasis": "source",
   "type": "note",
   "project": "rrls",
   "projects": [
    "rrls"
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   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-05",
   "dateBasis": "saved",
   "declaredDates": [
    "Date: 2026-09-05. Research companion to the Reality Bit Engine and RRLS audit."
   ],
   "status": "reference",
   "statusBasis": "mechanical v0: not part of a detected version series",
   "question": {
    "text": "The practical question becomes: can the engine recover a representation with inexpensive residual computation, while charging for recovery itself?",
    "basis": "source"
   },
   "result": {
    "text": "a new engine stage recovers affine relationships from ordinary CNF clauses, derives independent coordinates, preserves nonlinear residual constraints, and selects a fallback when the transformed representation is unsuitable.",
    "basis": "source"
   },
   "checks": {
    "text": "All 15 test groups passed. Checks include every three-variable Boolean relation, completeness of its affine consequence basis, fresh CNF counts, full reduced-assignment reconstruction, explicit nonlinear remainder preservation, parity contradictions, empty domains, arbitrary-precision counts, budget handling, and ten corrupted reduction variants.",
    "basis": "source",
    "sourceSection": "source-h-10"
   },
   "limits": {
    "text": "The measurements do not show a general runtime win.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The remaining empirical target is broader structure discovery that reliably reduces total cost on difficult, independent inputs.",
    "basis": "source"
   },
   "abstract": {
    "text": "Outcome: a new engine stage recovers affine relationships from ordinary CNF clauses, derives independent coordinates, preserves nonlinear residual constraints, and selects a fallback when the transformed representation is unsuitable. The mathematical result is an exact reduction with explicit limits. This work does not resolve P versus NP or establish a new complexity class.",
    "basis": "editorial"
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     "basis": "reading (verified)"
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     "id": "r-3abfc6df0612",
     "relation": "next-release",
     "basis": "reading (verified)",
     "quote": "Revision 0.2 of the SAT structure laboratory.",
     "quoteFrom": "r-3abfc6df0612"
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     "id": "r-d9f96ddde453",
     "relation": "repairs",
     "basis": "reading (verified)",
     "quote": "The new `verify_decision.py` closes that earlier reporting limitation.",
     "quoteFrom": "r-d9f96ddde453"
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    "url": "archive/2f8e1d2a9608-STRUCTURAL_REFINEMENT.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
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    "authorBasis": "Collection attribution; original record retains its own credits"
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   "attachments": []
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  {
   "id": "r-01881573f5be",
   "title": "RRLS Invariant Discovery Engine",
   "titleBasis": "source",
   "type": "note",
   "project": "rrls",
   "projects": [
    "rrls"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-05",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "mechanical v0: not part of a detected version series",
   "question": {
    "text": "Can a finite catalogue of exact structural invariants separate satisfiable from unsatisfiable formulas, and does a refinement chosen on training data survive fresh inputs?",
    "basis": "editorial"
   },
   "result": {
    "text": "On a separate fresh cohort, it reduced 290 opposite-label pairs to one.",
    "basis": "source"
   },
   "checks": {
    "text": "Across the two completed cohorts there are 1,602 independently checked base decisions and 1,602 checked bijective transformations: 3,204 formula records. The original cohort has 953 SAT and 393 UNSAT labels; the fresh cohort has 191 SAT and 65 UNSAT labels.",
    "basis": "source",
    "sourceSection": "source-h-11"
   },
   "limits": {
    "text": "This limitation applies to the information retained in \\(I_2\\), not to all polynomial invariants, all future RRLS extensions, or all algorithms. It proves neither P=NP nor P≠NP.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next candidate must retain information this pair loses; fitting a different classifier to these same features cannot repair that loss.",
    "basis": "source"
   },
   "abstract": {
    "text": "The engine was built, run, extended in response to counterexamples, and tested on a fresh cohort. It has not solved P versus NP.",
    "basis": "editorial"
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    "url": "archive/01881573f5be-RRLS_INVARIANT_DISCOVERY.md",
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   "provenance": {
    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/The Theory of Reality/RRLS_INVARIANT_DISCOVERY.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-90009b9e2f31",
   "title": "RRLS exact-cover lift: exclusivity, certificates, and a measured limit",
   "titleBasis": "source",
   "type": "note",
   "project": "rrls",
   "projects": [
    "rrls"
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   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-05",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "No later record in the corpus replaces it; r-90009b9e2f31 concludes \"These results justify adding the tested operators to the engine.\"",
   "question": {
    "text": "The target was to restore the exact-cover constraints that a parity-only representation discards, then determine whether the resulting algebraic lift rejects additional impossible matchings with independently checkable evidence.",
    "basis": "source"
   },
   "result": {
    "text": "The missing exclusivity constraints produced a demonstrable improvement: 71 to 400 refutations in the selected no-instance sample, including 30 cases beyond the tested field and LP relaxations.",
    "basis": "source"
   },
   "checks": {
    "text": "The new runner tries the cheap cyclic-sum certificate first, then parity degree 1 and bounded exclusivity lifts. Its default maximum degree is 2. Optional exact boundary solving supplies a checked SAT or UNSAT result when the filters leave the instance unresolved. A SAT result includes the decoded selected triples.",
    "basis": "source",
    "sourceSection": "source-h-11"
   },
   "limits": {
    "text": "The 500-instance sample is deliberately conditioned on pairwise feasibility and truth value; it is not a population prevalence estimate or a reproduction of the attachment's unavailable 1,000-instance dataset.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Which further certificate types, beyond the degree-2 lift and the single modular rule, cover obstructions like the order-eight cyclic table, and at what discoverable cost?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "5 September 2026. Extension to the RRLS proof-audit engine.",
    "basis": "editorial"
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   "source": {
    "url": "archive/90009b9e2f31-RRLS_EXCLUSIVITY_LIFT.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/The Theory of Reality/RRLS_EXCLUSIVITY_LIFT.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
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   "attachments": []
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  {
   "id": "r-089c94a4ecca",
   "title": "RRLS: A Proof Attempt at Universal Relational Compilation",
   "titleBasis": "source",
   "type": "proof-attempt",
   "project": "rrls",
   "projects": [
    "rrls"
   ],
   "projectBasis": "Explicit project source citation",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-05",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "Its refined solver is kept alongside later routes, not replaced; r-9be766ae72f6: \"This extension adds a new solver route; it does not replace the specialized Horn, matching, or GF(2) dispatches.\"",
   "question": {
    "text": "Could a universal relational compiler settle P versus NP, and what does the RRLS Studio v0.13 SAT module actually establish when audited?",
    "basis": "editorial"
   },
   "result": {
    "text": "It gives a constructive proof that a two-word vocabulary already expresses an NP-complete problem, a polynomial compiler for a restricted family, an explicit obstruction to that compiler's universality, and a reproducible implementation improvement.",
    "basis": "source"
   },
   "checks": {
    "text": "The bundle is a standard-library Python command-line extension to RRLS v0.13. Python 3.10+ is required; execution here used Linux and Python 3.12.13. Windows commands are supplied but were not independently run on Windows.",
    "basis": "source",
    "sourceSection": "source-h-8"
   },
   "limits": {
    "text": "That is a result for a constructed tractable family, not for general SAT.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Can every jointly constrained system produced by compilation, including the two-relation language, be solved within one uniform polynomial bound?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "5 September 2026 · Audit of RRLS Studio v0.13 and a tested refinement",
    "basis": "editorial"
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     "id": "r-9be766ae72f6",
     "relation": "extends",
     "basis": "reading (verified)",
     "quote": "Previous v0.13 source, previous refinement results, and the prior composition proof remain in the package.",
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    "url": "archive/089c94a4ecca-RRLS_PNP_COMPOSITION_PROOF.md",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
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   "id": "r-ee0f8cf32e7f",
   "title": "RRLS: independent mathematical and computational audit",
   "titleBasis": "source",
   "type": "audit",
   "project": "rrls",
   "projects": [
    "rrls"
   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "2026-09-05",
   "dateBasis": "saved",
   "declaredDates": [
    "Date: 2026-09-05. Companion to the Theory of Reality / Reality Bit Engine project."
   ],
   "status": "reference",
   "statusBasis": "Standalone audit of a supplied attachment; r-ee0f8cf32e7f itself: \"This companion changes neither the frozen v0.20 engine nor the Theory of Reality paper.\" Its factor-elimination engine is reused by r-2f8e1d2a9608.",
   "question": {
    "text": "Which claims in the supplied RRLS attachment (exact ANF, shear scoring, basis change, small-relations-first ordering, benchmarks) hold up under independent implementation and testing?",
    "basis": "editorial"
   },
   "result": {
    "text": "It establishes exact finite results, useful ordering effects, and explicit counterexamples to stronger claims. It does not reproduce the missing original search program or solve a Millennium Prize problem.",
    "basis": "source"
   },
   "checks": {
    "text": "Result: the attachment contains valid Boolean algebra and useful optimization ideas. This companion independently implements and tests selected methods. It establishes exact finite results, useful ordering effects, and explicit counterexamples to stronger claims. It does not reproduce the missing original search program or solve a Millennium Prize problem.",
    "basis": "source",
    "sourceSection": "source-h-1"
   },
   "limits": {
    "text": "unknown",
    "basis": "unknown"
   },
   "nextQuestion": {
    "text": "For P versus NP, the remaining obstacle is a proven bound for all input instances, including large intermediate widths and the cost of obtaining a useful representation.",
    "basis": "source"
   },
   "abstract": {
    "text": "Result: the attachment contains valid Boolean algebra and useful optimization ideas. This companion independently implements and tests selected methods. It establishes exact finite results, useful ordering effects, and explicit counterexamples to stronger claims. It does not reproduce the missing original search program or solve a Millennium Prize problem.",
    "basis": "editorial"
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     "quote": "Research companion to the Reality Bit Engine and RRLS audit.",
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    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/The Theory of Reality/AUDIT.md",
    "authorBasis": "Collection attribution; original record retains its own credits"
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     "category": "Data and benchmarks",
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   "id": "r-9be766ae72f6",
   "title": "RRLS: lift, learn, loop, and decode",
   "titleBasis": "source",
   "type": "note",
   "project": "rrls",
   "projects": [
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   ],
   "projectBasis": "Editorial topic association",
   "series": null,
   "version": null,
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   "date": "2026-09-05",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "Its scan-based checker is reused, not replaced, by r-01881573f5be: \"SAT models and generic UNSAT RUP proofs use the separate scan-based checker.\"",
   "question": {
    "text": "Can an exact complementary-coordinate lift plus conflict-driven clause learning give reusable, independently checkable reasoning on captured cores and fresh SAT cases?",
    "basis": "editorial"
   },
   "result": {
    "text": "All 40 selected inputs received independently checked decisions: 16 captured cores and 24 fresh or specified-family inputs.",
    "basis": "source"
   },
   "checks": {
    "text": "The 19 passing test groups include the previous twelve regression groups and seven new groups. New checks cover 300 deterministic small random formulas against exhaustive truth assignments, every learned lemma against all models of those small formulas, all 256 subsets of a three-variable forbidden-assignment cube, sparse identifiers, empty and tautological formulas, budget refusal and resume, corrupted proofs and assignments, lift corruption, and rechecked proof slicing.",
    "basis": "source",
    "sourceSection": "source-h-12"
   },
   "limits": {
    "text": "This is a faster finite execution, not an elimination of search.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Future structural primitives would need their own soundness, coverage, recognition, representation-size, and total-cost arguments.",
    "basis": "source"
   },
   "abstract": {
    "text": "Research extension to the RRLS P versus NP proof audit. 5 September 2026.",
    "basis": "editorial"
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    "origin": "d0re research collection (snapshot 1 October 2026)",
    "originalPath": "/The Theory of Reality/RRLS_LIFT_LOOP_PROOF.md",
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   "id": "r-d9f96ddde453",
   "title": "Theory of Reality — Verified Relation Reuse",
   "titleBasis": "source",
   "type": "note",
   "project": "rrls",
   "projects": [
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   "projectBasis": "Editorial topic association",
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   "date": "2026-09-05",
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   "declaredDates": [],
   "status": "current",
   "statusBasis": "Latest revision (0.3) of the RE SAT structure laboratory; r-d9f96ddde453: \"A future change needs another exact semantic argument and a separate cost comparison.\"",
   "question": {
    "text": "Can the cost of independently checking the engine's answers be reduced without weakening what the checker certifies?",
    "basis": "editorial"
   },
   "result": {
    "text": "On 34 fresh synthetic cases, all decisions passed both the new checker and the reference path.",
    "basis": "source"
   },
   "checks": {
    "text": "1. The certificate describes the requested normalized CNF. 2. Groups partition its clauses exactly, with valid scopes and equation masks. 3. An asserted inconsistency has an explicit XOR combination yielding \\(0=1\\); or the asserted affine map is complete. 4. The final SAT/UNSAT answer agrees with the evidence, and a claimed SAT witness satisfies the original clauses. 5. Any reported model count is covered by the checked evidence.",
    "basis": "source",
    "sourceSection": "source-h-4"
   },
   "limits": {
    "text": "This result is specific to the supplied suite and environment.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The now-visible costs include repeated structural validation and complete global-map checking; arbitrary nonlinear residuals remain the deeper algorithmic obstacle.",
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   "projectBasis": "Editorial topic association",
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   "status": "reference",
   "statusBasis": "r-034529e4bc8c is a raw clause list with no prose (first clause '-1 8 16 0'). No record replaces or withdraws it.",
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    "text": "Judging only by the file name and the RRLS v0.28 headline summary, this is the minimised 'full market' counterexample from that benchmark. The file itself states no question.",
    "basis": "editorial"
   },
   "result": {
    "text": "A 30-clause three-literal CNF over variables up to 40. The v0.28 headline summary records a minimised counterexample reduced from 170 to 30 clauses.",
    "basis": "editorial"
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   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
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    "text": "Data only: no statement of the claim it counters, the solver or the budget. The companion summary marks the minimisation 'current_budget_only'.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "Which RRLS v0.28 claim does this formula counter, and does it stay minimal beyond the current search budget?",
    "basis": "editorial"
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   "id": "r-a1de2c115537",
   "title": "Grounded Wave Semantic Network Architecture and Theorem",
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   "dateBasis": "saved",
   "declaredDates": [
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   "status": "reference",
   "statusBasis": "r-a1de2c115537 states its own status: 'architecture proposal with mathematical proofs under stated assumptions; no architecture implementation, training run, or performance benchmark is reported.' No later version exists in the corpus.",
   "question": {
    "text": "Equivalent expressions should reach the same semantic state when they refer to the same meaning in the same relevant context. Differences in substance, organization, action, role, uncertainty, and intent must remain distinguishable.",
    "basis": "source"
   },
   "result": {
    "text": "The proved statement is conditional: accepted equivalent inputs share a reasoning result when the representation is lossless, execution is faithful, and the selected operators preserve their declared contracts.",
    "basis": "source"
   },
   "checks": {
    "text": "For a literal physical description, the intended grounding process is to obtain observations or a declared model, construct typed properties, and enforce laws within their validity regime. The network does not derive arbitrary object properties merely by receiving a noun.",
    "basis": "source",
    "sourceSection": "source-h-11"
   },
   "limits": {
    "text": "It is not a proof that a trained network interprets every sentence correctly, that every proposed operator is sound, or that wave coordinates are necessary for the guarantee.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Compare against both a token-based neural baseline and a structured semantic architecture with the same normalizer, grounding data, verifier, and operator library but ordinary vector coordinates.",
    "basis": "source"
   },
   "abstract": {
    "text": "This document proposes the Grounded Wave Semantic Network (GWSN), a neural architecture that separates language interpretation, structured meaning, wave encoding, reasoning, and output generation. Physical descriptions include composition, organization, state, and applicable laws; other meanings include agents, roles, context, and declared conventions.",
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    "authorBasis": "Collection attribution; original record retains its own credits"
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  {
   "id": "r-9652d273d004",
   "title": "Multiplying shapes: 24-shape atlas",
   "titleBasis": "source",
   "type": "documentation",
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   "projectBasis": "Explicit project source citation",
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   "date": "unknown",
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   "declaredDates": [
    "Prepared 5 September 2026. The chosen operation is the Cartesian product of filled planar regions. “Perfect triangle” is interpreted as equilateral."
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   "status": "reference",
   "statusBasis": "A standalone atlas with no version series. r-9652d273d004 dates itself \"Prepared 5 September 2026.\" No later record replaces or withdraws it.",
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    "text": "What does it mean to multiply two filled 2D shapes, and what face counts, topology, volume and 3D shadows does the product have?",
    "basis": "editorial"
   },
   "result": {
    "text": "Every nonempty face of A × B is the product of one nonempty face of A with one of B, and its dimension is the sum of theirs.",
    "basis": "source"
   },
   "checks": {
    "text": "This record does not separate a verification section. Read its methods, assumptions and original source before treating a claim as checked.",
    "basis": "editorial",
    "sourceSection": "source-record"
   },
   "limits": {
    "text": "The pattern is established product geometry; it does not by itself prove a new physical dimension or universal algorithmic speedup.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "None stated. The open checks are curved and concave pairs, which were not face-count tested, and the viewer, which was never tried in an actual browser.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "If A and B are filled 2D regions, A × B = {(a1,a2,b1,b2): (a1,a2) in A, (b1,b2) in B}. Each point can vary in four independent directions, so the product has dimension 4. For convex polytopes this is the standard prism product; Margaret Readdy's lecture notes give the definition and dimension rule: https://www.math.ias.edu/files/wam/mreaddylect2_0.pdf",
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  {
   "id": "r-2fd10abfc4e7",
   "title": "Claim ledger (observer, clock and Maxwell branch)",
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    "text": "Which claims in the observer, clock and Maxwell branch are established, conditional, rejected or not identified, and which artefact supports each one?",
    "basis": "editorial"
   },
   "result": {
    "text": "O04,Adding eight internal modes proves eight spatial dimensions,H,Not identified,AGENT_HANDOFF.md sections 4 and 11,Modes are internal polarization state variables",
    "basis": "source"
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   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "N06,All latest scheduled gates pass,C,18 of 18,experiments/maxwell_error_audit/outputs/audit_summary.json,Numerical/model consistency only",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Which specified law or observable would move a 'not identified' entry, such as F05 or O04, to a tested status?",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
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    "authorBasis": "handoff README: Anthony Michael Collado"
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   "id": "r-b3cababe16e2",
   "title": "Eight-clock execution: coupled Maxwell, recovery and identification limit",
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   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "drive handoff package",
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   "dateBasis": "saved",
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   "status": "current",
   "statusBasis": "executed packages of 13 October 2026; not yet published",
   "question": {
    "text": "Does a passive Maxwell field coupled to eight hierarchical polarisation oscillators stay energy-consistent, can its parameters be recovered from synthetic spectra, and can it be told apart from ordinary materials?",
    "basis": "editorial"
   },
   "result": {
    "text": "An independently assembled conventional eight-Lorentz-resonance medium produces the same response and triggers the same detection diagnostic. Thus this calculation cannot identify extra spatial dimensions.",
    "basis": "source"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "Zero false flags in 32 conventional-nuisance trials only bounds that particular synthetic false-flag probability below 8.94% at one-sided 95% confidence.",
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   },
   "nextQuestion": {
    "text": "A distinct dimensional claim would require a specified coordinate/action/coupling and an observable consequence outside the conventional countermodel class.",
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     "basis": "reading (verified)",
     "quote": "The optimizer continues an exhausted iteration budget from the last point, using unchanged data, objective and bounds.",
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     "quote": "The most important completed finding is an identification limit: the eight-clock implementation is exactly an eight-Lorentz-oscillator material law.",
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   "id": "r-493d03e8ea7d",
   "title": "Executed Maxwell error-correction audit",
   "titleBasis": "source",
   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "drive handoff package",
   "series": "handoff-2026-10",
   "version": null,
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   "date": "2026-10-13",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "r-e38932881878: 'The current active implementation is experiments/maxwell_error_audit/.' The other four stage directories 'preserve earlier stages and their original results'.",
   "question": {
    "text": "Can the numerical errors of the original taijitu solver and the eight-clock fits be isolated and corrected, and does the exact conventional equivalence survive the corrections?",
    "basis": "editorial"
   },
   "result": {
    "text": "The numerical errors were isolated and corrected. The exact conventional-oscillator equivalence remains: this calculation tests a proposed material law and its numerical implementation; it does not establish extra dimensions or a theory of all reality.",
    "basis": "source"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "The corrected N=96 FDTD patterned transmission still differs from the K=24 Fourier result by 0.099918 percentage points. This is a remaining finite-grid/boundary discrepancy.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Which specified law or observable would differ from the exact conventional eight-Lorentz counterpart, with numerical error below the predicted difference?",
    "basis": "editorial"
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   "abstract": {
    "text": "unknown",
    "basis": "unknown"
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     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "The original 160-evaluation fit budget was insufficient for six selected null-data fits.",
     "quoteFrom": "r-bc9d62d0c36e"
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     "quote": "N03,Full-vector Fourier slab calibration,C,Passed",
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    "authorBasis": "handoff README: Anthony Michael Collado"
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   "title": "Finite observer and nested clock lab",
   "titleBasis": "source",
   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "drive handoff package",
   "series": "handoff-2026-10",
   "version": null,
   "seriesOrder": null,
   "date": "2026-10-13",
   "dateBasis": "saved",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "r-e38932881878: 'The other four directories preserve earlier stages and their original results.' No later record replaces or corrects this stage's controls.",
   "question": {
    "text": "Can a finer observation reveal features that a coarser image blends without changing the scene? Can nested yin–yang wheels be assigned slower clocks and separate phase diffusion? Which signatures survive projection?",
    "basis": "source"
   },
   "result": {
    "text": "A model of observation must distinguish the selected measurement from the physical interaction. Phase-sensitive information can change while mean system energy stays fixed.",
    "basis": "source"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "All output is synthetic and reproducible; no observational astronomy or physical clock data were fitted.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "specify a material and detector model, a mechanism linking scale to clock rate, units for the clocks, and a prediction that differs from standard optics, relativity, and ordinary material noise on held-out measurements.",
    "basis": "source"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
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     "id": "r-bc9d62d0c36e",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "The finite observer lab executes recursive depths 0, 1 and 2 in the image benchmark and depth-dependent clock calculations through depth 4.",
     "quoteFrom": "r-bc9d62d0c36e"
    },
    {
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     "basis": "reading (verified)",
     "quote": "P01,Cosine observation distinguishes opposite phase directions,M/C,Rejected by exact identity and computation",
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    "authorBasis": "handoff README: Anthony Michael Collado"
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   "title": "Fused-silica taijitu: three-dimensional Maxwell calculation",
   "titleBasis": "source",
   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "drive handoff package",
   "series": "handoff-2026-10",
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   "dateBasis": "saved",
   "declaredDates": [],
   "status": "corrected",
   "statusBasis": "r-493d03e8ea7d corrects its numerical method: 'A z convolutional PML replaces the original per-step sponge.' The old sponge 'was not a matched absorber', and the incident extractor and material sampling were also fixed. The original 0.565232 pp slab error is retained as history.",
   "question": {
    "text": "What does a full three-dimensional Maxwell calculation give for 1 µm light on a periodic array of fused-silica yin–yang islands, using measured silica dispersion?",
    "basis": "editorial"
   },
   "result": {
    "text": "Without such a rule the present pattern is explained by ordinary Maxwell diffraction and is not evidence for additional dimensions.",
    "basis": "source"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "The finest numerical slab T of 95.609% is still 0.565 percentage points away.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "Then run that variant against the standard material model and measure an observable difference, such as a preselected order's power versus wavelength and polarization.",
    "basis": "source"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
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     "quote": "The existing taijitu run is exploratory. Its finest slab T differs from the analytic value by 0.565 percentage points, and patterned R+T is 100.124%.",
     "quoteFrom": "r-e2a666a8bde5"
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    "text": "Numerical accuracy additionally requires convergence and independent controls; passing a conservation check alone does not certify the continuum result.",
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    "text": "The passive oscillator choice is a particularly useful first test because its energy and susceptibility can be derived in closed form. It immediately reveals both a consistent computation and a fundamental ambiguity.",
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    "text": "The remaining solver difference is a finite-grid/boundary discrepancy, not a physical signal. A small power-balance residual is not a rigorous bound on diffraction error.",
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    "text": "Which specified law or observation, differing from the exact Lorentz-material counterpart, should the next agent test?",
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    "text": "The current framework is ready for a carefully specified distinguishing law or observation. It is not ready for a claim that all physical sectors, antimatter, gravity, observer-created energy or a unique hidden spatial dimension have been derived.",
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    "text": "This indicates local two-parameter sensitivity for the declared restricted family; it is not a proof of global uniqueness, or of robustness to uncertain material parameters or calibration.",
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    "text": "That result identifies a useful observer for the model contest; it does not prove the physical water cycle from a verse.",
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    "text": "Consistency of a proposed model is not a theorem that every question about it is decidable, efficiently computable, or provable from its assumptions. The prize problems ask precise mathematical questions under fixed definitions. Replacing those definitions with a finite grid would require an equivalence theorem before the new calculation could settle the original question. Physical plausibility alone is not that theorem.",
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    "text": "finding the absolutely shortest possible program for arbitrary data connects to Kolmogorov complexity, which is not computable in full generality.",
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   "id": "r-ef2aa36ff943",
   "title": "Wallbreaker Protocol P3",
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   "question": {
    "text": "What evidence would show that a hidden variable carries outcome information beyond the Born rule, and which logical and physical walls must each candidate pass?",
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   "result": {
    "text": "The wallbreaker has been built; nature has not yet supplied the wall-breaking observation.",
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    "text": "P3 is a standard, not the completed experiment. A physical run must freeze:",
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   "limits": {
    "text": "W10 is a logical boundary, not an engineering inconvenience. No finite dataset proves an unrestricted law on untested contexts.",
    "basis": "source"
   },
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    "text": "Will an activated single-device run, with independent calibration and an externally anchored manifest, show an outcome crossing that survives the setting-leak and drift controls?",
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   },
   "abstract": {
    "text": "P3 converts “break every wall” into a finite set of typed obligations. A wall is marked broken only by one of three admissible evidence classes: 1. a written theorem with explicit assumptions; 2. a reproducible computation testing a finite implementation claim; 3. a preregistered physical measurement with a specified null, decision rule, and causal controls.",
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     "quote": "Appendix AD instantiates Wallbreaker Protocol P3 as P3-R1, an unactivated IBM Quantum-compatible three-qubit pilot.",
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   "id": "r-350b255f3242",
   "title": "Rotational Complexity of Matrices — Theory and Experimental Results",
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   "statusBasis": "r-350b255f3242 is a standalone lab report that states its own boundary: the idea succeeds as Fourier complexity 'and fails if interpreted as basis-independent complexity or as proof of true randomness.'",
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    "text": "Can any finite matrix be rebuilt from rotating circles (Fourier rotors), and does the number of rotors needed measure pattern or randomness?",
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    "text": "Every finite real matrix can be reconstructed exactly by a finite collection of these rotors.",
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    "text": "- Matrix size: 64 × 64 (4,096 values). - Available conjugate rotor groups: 2,050. - Energy targets: 50%, 90%, 95%, 99%, and 99.9%. - Controls: constant, one sinusoid, four sinusoids, checkerboard, and square-wave stripes. - Geometry: Gaussian blob, binary disk, and binary square. - Counterexamples: random rank-one outer product and single spatial impulse. - Randomness: Gaussian noise, random signs, and a short-rule 32-bit LCG. - Random trials: 40 seeds for each distribution at 16², 32², 64², and 128². - Comparator: SVD components needed for the same retained-energy targets.",
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    "text": "The rank-one and impulse controls are deliberately simple in other languages but expensive in the Fourier language.",
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    "text": "The next scientifically meaningful quantity is therefore a two-part description length:",
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    "text": "The proposed idea is mathematically valid when a “rotating circle” is defined as one real conjugate pair of two-dimensional Fourier coefficients. Every finite real matrix can be reconstructed exactly by a finite collection of these rotors. The number needed is a useful, computable basis-dependent complexity measure, but it is not a universal measure of pattern or randomness.",
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   "title": "Appendix BS: mathematical and evidence audit",
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   "declaredDates": [
    "Date: 21 September 2026. Scope: the supplied Theory_of_Reality_v1.70_draft.md, especially Appendix BS. This is a separate audit, not a revised edition of the paper. The supplied draf"
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    "text": "Do the Appendix BS inversion-theory theorems, and the inferences drawn from them, hold under exact checking?",
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   "result": {
    "text": "The continuous rigid-motion obstruction and the explicit extra-coordinate rotation survive.",
    "basis": "source"
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   "checks": {
    "text": "Both scripts refuse to overwrite an existing requested output file. BS_CHECKED_RESULTS.json records the 16 passing tests, source hash and calculations; BS_SYMBOLIC_RESULTS.json records seven passing polynomial identities. The polynomial checker shares no functions with the regression script and uses a different determinant algorithm. Written arguments above establish the continuous geometric results; finite rational sampling alone does not.",
    "basis": "source",
    "sourceSection": "source-h-11"
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   "limits": {
    "text": "No physical measurement, extra-dimensional detection, universal no-detection survey, or theological inference is supplied by this work.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "obtain the original sighting-verifier source and feed it the point-slice tetrahedron, the nonrigid always-chiral five-point path, an unobserved intersample deformation, and a zero-rate model at arbitrary radius.",
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   "abstract": {
    "text": "The continuous rigid-motion obstruction and the explicit extra-coordinate rotation survive. Several proposed inferences from observations do not: visible slice dimension need not count hidden dimensions; a nonrigid inversion need not pass through a globally achiral configuration; no observed flips do not determine a compactification radius; and a temperature-independent rate floor does not certify rigidity.",
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   "id": "r-88d96126ec54",
   "title": "Physical coverage and the electromagnetic wave foundation",
   "titleBasis": "source",
   "type": "note",
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   "projects": [
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   "projectBasis": "Explicit project source citation",
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   "dateBasis": "saved",
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   "status": "superseded",
   "statusBasis": "r-1d8715c179d2 includes this release as Appendix CG ('Appendix CG and Fixed Grid String Lab 0.9.0 establish a 20-sector physical coverage ledger') and closes its stated gap in Appendix CH.",
   "question": {
    "text": "The goal is to recover established physical predictions in their experimentally tested domains, explain how effective descriptions follow from the proposed foundation, and make discriminating new predictions.",
    "basis": "source"
   },
   "result": {
    "text": "It supplies a local continuity law and a consistent charged-wave connection.",
    "basis": "source"
   },
   "checks": {
    "text": "The production implementation assembles an incidence-matrix energy and evolves by a matrix exponential. Three synthetic rings have N=5,9,16, fixed seeds, real potentials, unit-modulus links and normalized complex initial states. The ring spectrum and refinement examples are specified separately. No measured data or fitted physical parameter is used. Units are dimensionless with hbar=1.",
    "basis": "source",
    "sourceSection": "source-h-10"
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   "limits": {
    "text": "There is no new measured physical evidence in this release.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The immediate integration gate is a self-consistent field–matter benchmark with a declared action, conserved charge, tracked total energy, Gauss-constraint monitoring and grid/time convergence.",
    "basis": "source"
   },
   "abstract": {
    "text": "Theory of Reality 1.84 · Fixed Grid String Lab 0.9.0 · 21 September 2026",
    "basis": "editorial"
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     "quote": "Appendix CG left one precise gap: its gauge field was prescribed, so matter did not source the field that acted on it.",
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    "url": "archive/88d96126ec54-Physical_Coverage_And_Gauge_Derivation.md",
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   "id": "r-cae4bcf2f553",
   "title": "Theory of Reality: a Wave–Observer Formulation",
   "titleBasis": "source",
   "type": "manuscript",
   "project": "theory",
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   "projectBasis": "Explicit project source citation",
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   "statusBasis": "r-1d8715c179d2 includes this formulation as its Appendix CF and builds on it: 'Appendix CF and Fixed Grid String Lab 0.8.0 define the Wave–Observer Formulation'.",
   "question": {
    "text": "represent a declared system by modes, specify how those modes interact and evolve, and calculate what a declared observer receives.",
    "basis": "source"
   },
   "result": {
    "text": "Waves can therefore be a shared mathematical language. Their physical state spaces and measurement rules remain typed.",
    "basis": "source"
   },
   "checks": {
    "text": "The independent audit imports no production functions; it uses FFT routines, direct time-domain ODEs and analytic solutions. Both implementations share the declared mathematics and NumPy/SciPy environment. This is implementation verification, not experimental replication. The first development execution encountered a NumPy-boolean JSON serialization error; converting output flags to Python booleans fixed reporting without changing the frozen mathematics, parameters or tolerances.",
    "basis": "source",
    "sourceSection": "source-h-10"
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   "limits": {
    "text": "It adds no measured physical evidence and derives neither the Standard Model nor gravity from the project's higher-dimensional hypothesis.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The next bounded target is one frozen hydrogen emission case.",
    "basis": "source"
   },
   "abstract": {
    "text": "The useful central proposal is this: represent a declared system by modes, specify how those modes interact and evolve, and calculate what a declared observer receives. Each physical application must supply its own equations, units, couplings and evidence. A common representation is possible without assuming that sound, light and quantum probability are the same physical field.",
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     "quote": "The preceding formulation, i hbar da/dt = H a, becomes predictive only after H, the state preparation and the measurement map are specified.",
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  {
   "id": "r-2711bdafd755",
   "title": "Wave oscillation and higher spatial dimensions: calculation audit",
   "titleBasis": "source",
   "type": "audit",
   "project": "theory",
   "projects": [
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   ],
   "projectBasis": "Editorial topic association",
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   "date": "2026-09-22",
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   "status": "reference",
   "statusBasis": "r-2711bdafd755 is a cumulative audit report ('Previous research is preserved. No new physical measurements were supplied.'). No later record replaces or withdraws it.",
   "question": {
    "text": "Can wave and oscillation calculations distinguish an additional spatial dimension from ordinary-space alternatives, including under controlled interventions?",
    "basis": "editorial"
   },
   "result": {
    "text": "A common phase pattern predicts held-out harmonics and forces, while an explicitly matching ordinary-space field model continues to reproduce the predictions.",
    "basis": "source"
   },
   "checks": {
    "text": "The activation protocol and identifier were hashed before execution. Eight randomly oriented three-coordinate systems have visible frequencies 0.61, 1.12 and 1.90 in model units. Their hidden frequency is drawn between 0.78 and 1.66. Six coupling commands range from 0.0001 to 0.03. Every setting receives twenty independent pairs of noisy measurements in each of two scenarios:",
    "basis": "source",
    "sourceSection": "source-h-5"
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   "limits": {
    "text": "The present work improves that test machinery; it has not crossed the physical-evidence gate.",
    "basis": "source"
   },
   "nextQuestion": {
    "text": "The most concrete next physical inputs would be calibrated intervention data and a justified observation model that distinguishes a spatial displacement from an ordinary internal phase.",
    "basis": "source"
   },
   "abstract": {
    "text": "Anthony Michael Collado's Theory of Reality project · 22 September 2026 Inputs: Theory of Reality v1.70, especially BH, BK, BO and BS; Wave Chemistry Lab build 9. Status: Added controlled-intervention detection limits (1,920 repeated trials), multi-source phase/force predictions (160 paired datasets), exact feedback equivalence and a phase-work identity. Previous research is preserved. No new physical measurements were supplied.",
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   "id": "r-d849f62b8737",
   "title": "AB Continuum Report",
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   "type": "report",
   "project": "theory",
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   "projectBasis": "unknown",
   "series": null,
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   "dateBasis": "unknown",
   "reviewedOn": "2026-10-15",
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   "status": "current",
   "statusBasis": "Cited by r-art-aharonov-bohm as 'Finite-width report and failed gate'. It is the latest finite-width Aharonov–Bohm record named in research edition 02. Not recovered.",
   "question": {
    "text": "As described in research edition 02, does a finite-width annular Schrödinger model of the Aharonov–Bohm set-up reach its frozen spatial-convergence gates?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, the first frozen gate failed (ratios about 2.17–2.20 against a minimum of 2.5); a separately frozen deeper follow-up reached 2.60–2.71 and passed.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "As described in research edition 02, it stayed short of a factor-four full-wave regime and has no certified continuum error bound or calibrated apparatus.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "As described in research edition 02, the next test needs an open-propagation apparatus model with independently bounded nuisances, frozen before newly reserved frames are scored.",
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   "abstract": {
    "text": "unknown",
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   "title": "AB Lens Results",
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   "project": "theory",
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   "statusBasis": "Cited by r-art-aharonov-bohm as 'Lens correction and measured-data limits'. ENG-007 (AB Lens Audit 0.1.0) is still listed as open in research edition 02. Not recovered.",
   "question": {
    "text": "As described in research edition 02, can a published toroidal-lens correction be reproduced, and can historical detector frames fix a lens parameter?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, the published Lentzen correction was reproduced; a radial-dilation estimator proved unstable, explaining only about 9.7–17.9% of processed radial contrast.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "As described in research edition 02, the fits supply no accepted physical lens parameter, and the reproduced correction is published work, not an original discovery.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "As described in research edition 02, inspected frames stay development data; an open-propagation microscope baseline must be specified before fitting reserved fresh frames.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
   },
   "ledFrom": [],
   "ledTo": [
    {
     "id": "r-art-aharonov-bohm",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "AB_Lens_Results.md",
     "quoteFrom": "r-art-aharonov-bohm"
    }
   ],
   "source": {
    "url": null,
    "sha256": "22f8f5d89f730390aad12bd38d160ac2990c570c068ac87e1cacdb358bc29317",
    "bytes": 4573,
    "words": null,
    "access": "not-recovered",
    "aliases": [],
    "headings": 0,
    "figures": 0
   },
   "provenance": {
    "origin": "working library (not published)",
    "originalPath": "AB_Lens_Results.md",
    "authorBasis": "Anthony Michael Collado (research edition 02)"
   },
   "attachments": []
  },
  {
   "id": "r-9e687319e107",
   "title": "Aharonov Bohm Report",
   "titleBasis": "editorial",
   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "unknown",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "unknown",
   "dateBasis": "unknown",
   "reviewedOn": "2026-10-15",
   "declaredDates": [],
   "status": "unavailable",
   "statusBasis": "reviewed for research edition 02 (15 October 2026); source not published",
   "question": {
    "text": "As described in research edition 02, does a punctured-grid benchmark show that the loop phase, not local field samples, sets point-detector probabilities?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, zero flux and half a flux quantum gave different point-detector probabilities on a 72-vertex grid with one hole; cutting the loop removed the dependence.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "As described in research edition 02, this is established ordinary-space quantum mechanics with an idealised point detector; it does not indicate a fourth spatial direction.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "As described in research edition 02, the point detector was next replaced by a finite aperture in an annular Schrödinger follow-up.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
   },
   "ledFrom": [],
   "ledTo": [
    {
     "id": "r-art-aharonov-bohm",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "Aharonov_Bohm_Report.md",
     "quoteFrom": "r-art-aharonov-bohm"
    }
   ],
   "source": {
    "url": null,
    "sha256": "9e687319e1079e94d943c8a7229c3a3fdeee00d0bf4c9c0b8c779d004219e577",
    "bytes": 10702,
    "words": null,
    "access": "not-recovered",
    "aliases": [],
    "headings": 0,
    "figures": 0
   },
   "provenance": {
    "origin": "working library (not published)",
    "originalPath": "Aharonov_Bohm_Report.md",
    "authorBasis": "Anthony Michael Collado (research edition 02)"
   },
   "attachments": []
  },
  {
   "id": "r-31f4752788b0",
   "title": "Bible Key Stress Test",
   "titleBasis": "editorial",
   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "unknown",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "unknown",
   "dateBasis": "unknown",
   "reviewedOn": "2026-10-15",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "Cited by r-art-questions-and-meaning as 'Bible-led bounded tests and retained negative'. ENG-029 (Bible Key Stress Lab 0.1.0) is still open in research edition 02. Not recovered.",
   "question": {
    "text": "As described in research edition 02, can Bible-led questions be coded into fixed decoders and bounded models, and do those decoders survive parallel passages?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, a tracer intervention separated closed and open water models in 128 of 128 synthetic cases; a spelling-based π rule failed in Chronicles.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "As described in research edition 02, the results are conditional synthetic models; they neither prove the water cycle from a verse nor judge interpretation or faith.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "As described in research edition 02, freeze the textual coding before new passages; physical tracer proposals need apparatus, readout and noise models.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
   },
   "ledFrom": [],
   "ledTo": [
    {
     "id": "r-art-questions-and-meaning",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "Bible_Key_Stress_Test.md",
     "quoteFrom": "r-art-questions-and-meaning"
    }
   ],
   "source": {
    "url": null,
    "sha256": "31f4752788b08dd96d7520dec3858cf3dea414ebd9d9fecd46ffe3ddf0bb43fd",
    "bytes": 16312,
    "words": null,
    "access": "not-recovered",
    "aliases": [],
    "headings": 0,
    "figures": 0
   },
   "provenance": {
    "origin": "working library (not published)",
    "originalPath": "Bible_Key_Stress_Test.md",
    "authorBasis": "Anthony Michael Collado (research edition 02)"
   },
   "attachments": []
  },
  {
   "id": "r-b3fa49ed3ab2",
   "title": "Causal Pair Report",
   "titleBasis": "editorial",
   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "unknown",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "unknown",
   "dateBasis": "unknown",
   "reviewedOn": "2026-10-15",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "Cited by r-art-identifiability as the 'After-preparation causal-pair report'. ENG-036 (Causal Pair Lab 0.1.0) is still open in research edition 02. Not recovered.",
   "question": {
    "text": "As described in research edition 02, can concealed active/sham assignments made after preparation separate pair coupling from preparation and detector-drift rivals?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, in 64 fresh synthetic cases ordinary exchange corroborated 64/64 and weak coupling 46/64; concealed preparation and blinded drift gave 0/64.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "As described in research edition 02, its randomisation premises are enforced in the simulator, not verified on hardware; an arm-aware detector reproduces the exchange readout exactly.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "As described in research edition 02, validate assignment isolation, timing and physical readout calibration, and avoid post-hoc rule selection.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
   },
   "ledFrom": [],
   "ledTo": [
    {
     "id": "r-art-identifiability",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "Causal_Pair_Report.md",
     "quoteFrom": "r-art-identifiability"
    }
   ],
   "source": {
    "url": null,
    "sha256": "b3fa49ed3ab2feb40bc505286c5c094aae273520e41e4fd69a36fcd58513b69a",
    "bytes": 11980,
    "words": null,
    "access": "not-recovered",
    "aliases": [],
    "headings": 0,
    "figures": 0
   },
   "provenance": {
    "origin": "working library (not published)",
    "originalPath": "Causal_Pair_Report.md",
    "authorBasis": "Anthony Michael Collado (research edition 02)"
   },
   "attachments": []
  },
  {
   "id": "r-48aa94a36b73",
   "title": "Centroid Ranging Challenge",
   "titleBasis": "editorial",
   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "unknown",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "unknown",
   "dateBasis": "unknown",
   "reviewedOn": "2026-10-15",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "Cited by r-art-identifiability as 'Centroid competitor and moment prediction'. ENG-033 (Centroid Ranging Lab 0.1.0) is still open in research edition 02. Not recovered.",
   "question": {
    "text": "As described in research edition 02, can centroid ranging distinguish a hidden-coordinate range law from an ordinary three-dimensional distributed source?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, a positive ordinary 3D source reproduces the same mean distance at every observer position; its predicted path variance w²/2 suggests a waveform test.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "As described in research edition 02, the distinguishing variance depends on an idealised response; uncharacterised detector tails could restore the ambiguity.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "As described in research edition 02, model the full pulse waveform and detector tails, then run a controlled source/reference path experiment.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
   },
   "ledFrom": [],
   "ledTo": [
    {
     "id": "r-art-identifiability",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "Centroid_Ranging_Challenge.md",
     "quoteFrom": "r-art-identifiability"
    }
   ],
   "source": {
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    "sha256": "48aa94a36b73b34b54b48dcc4e83e552c46b0725ebcd4d8c6a5bfede4c33b46c",
    "bytes": 14669,
    "words": null,
    "access": "not-recovered",
    "aliases": [],
    "headings": 0,
    "figures": 0
   },
   "provenance": {
    "origin": "working library (not published)",
    "originalPath": "Centroid_Ranging_Challenge.md",
    "authorBasis": "Anthony Michael Collado (research edition 02)"
   },
   "attachments": []
  },
  {
   "id": "r-c6f4b7c99e84",
   "title": "Engine Gap Closure Status",
   "titleBasis": "editorial",
   "type": "dataset",
   "project": "theory",
   "projects": [],
   "projectBasis": "unknown",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "unknown",
   "dateBasis": "unknown",
   "reviewedOn": "2026-10-15",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "Cited by r-art-state-of-the-theory as the 'Gap register'. Its ten gap entries are reproduced in research edition 02's current-state.json. Not recovered.",
   "question": {
    "text": "As described in research edition 02, which implementation gaps are closed, which original bytes remain lost, and which items need physical inputs?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, six gaps (G01–G06) are closed and checked, lost original bytes are not recovered, and three items await physical inputs, reserved benchmarks or research.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "As described in research edition 02, closing implementation gaps is separate from scientific completion; no new physical data were supplied.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "As described in research edition 02, unified physical derivation and spatial-4D identifiability remain unresolved, with surviving ordinary-space rivals still to address.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
   },
   "ledFrom": [],
   "ledTo": [
    {
     "id": "r-art-state-of-the-theory",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "Engine_Gap_Closure_Status.json",
     "quoteFrom": "r-art-state-of-the-theory"
    }
   ],
   "source": {
    "url": null,
    "sha256": "c6f4b7c99e849cbc33bfc0b4a74e25d5d722e71fd5048de09baf12aa78d1bf7b",
    "bytes": 2751,
    "words": null,
    "access": "not-recovered",
    "aliases": [],
    "headings": 0,
    "figures": 0
   },
   "provenance": {
    "origin": "working library (not published)",
    "originalPath": "Engine_Gap_Closure_Status.json",
    "authorBasis": "Anthony Michael Collado (research edition 02)"
   },
   "attachments": []
  },
  {
   "id": "r-bd1a41299f97",
   "title": "Engine Spec Execution Report",
   "titleBasis": "editorial",
   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "unknown",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "unknown",
   "dateBasis": "unknown",
   "reviewedOn": "2026-10-15",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "r-art-state-of-the-theory calls it 'the current execution report'. It is the saved 2.42 execution package reviewed in research edition 02. Not recovered.",
   "question": {
    "text": "As described in research edition 02, what did the saved 2.42 execution package run and reproduce across the engine programme?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, it reports 1,365 passing tests in 31 groups, 306 frozen hashes and eleven native cosmology endpoints reproduced; these count software checks, not physical laws.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "As described in research edition 02, the full replay was not rerun for that edition; replaying an existing model is not fresh model validation.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "As described in research edition 02, its first physical target is a prospective forward Aharonov–Bohm apparatus prediction under independently measured nuisance bounds.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
   },
   "ledFrom": [],
   "ledTo": [
    {
     "id": "r-art-state-of-the-theory",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "The first physical target is the forward Aharonov–Bohm apparatus test described in the current execution report.",
     "quoteFrom": "r-art-state-of-the-theory"
    },
    {
     "id": "r-art-hubble",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "The saved 2.42 execution report records 306 frozen source/data hashes",
     "quoteFrom": "r-art-hubble"
    },
    {
     "id": "r-art-measurement",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "Engine_Spec_Execution_Report.md",
     "quoteFrom": "r-art-measurement"
    }
   ],
   "source": {
    "url": null,
    "sha256": "bd1a41299f974b5e20d9021b9342165c9e68644d9956ecb4c6504b53c7eedd49",
    "bytes": 4131,
    "words": null,
    "access": "not-recovered",
    "aliases": [],
    "headings": 0,
    "figures": 0
   },
   "provenance": {
    "origin": "working library (not published)",
    "originalPath": "Engine_Spec_Execution_Report.md",
    "authorBasis": "Anthony Michael Collado (research edition 02)"
   },
   "attachments": []
  },
  {
   "id": "r-49c565ef3e8c",
   "title": "Finite Wave Mode Handoff",
   "titleBasis": "editorial",
   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "unknown",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "unknown",
   "dateBasis": "unknown",
   "reviewedOn": "2026-10-15",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "Cited by r-art-finite-waves as the 'Finite-mode mathematical handoff'. It was replayed for research edition 02 (r-d92d78896f83). Not recovered.",
   "question": {
    "text": "As described in research edition 02, can a finite harmonic lattice with positive mode energies recover the standard one-dimensional Casimir piston force?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, the fixed/fixed force matched the continuum benchmark to a relative difference of about 1.16×10⁻⁹, with no zeta function or inserted −1/12.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "As described in research edition 02, it is a supplied 1D scalar model; it does not imply negative total energy, wormholes or a dimension count.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "As described in research edition 02, a transfer to material electromagnetism needs justified field content, dispersion, dissipation, boundaries and measurement response, tested independently.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
   },
   "ledFrom": [],
   "ledTo": [
    {
     "id": "r-art-finite-waves",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "Finite_Wave_Mode_Handoff.md",
     "quoteFrom": "r-art-finite-waves"
    }
   ],
   "source": {
    "url": null,
    "sha256": "49c565ef3e8cb02bbcc2e8122a0f2b5c6ac156fc903fd366ab8e9fc5a089ec51",
    "bytes": 14565,
    "words": null,
    "access": "not-recovered",
    "aliases": [],
    "headings": 0,
    "figures": 0
   },
   "provenance": {
    "origin": "working library (not published)",
    "originalPath": "Finite_Wave_Mode_Handoff.md",
    "authorBasis": "Anthony Michael Collado (research edition 02)"
   },
   "attachments": []
  },
  {
   "id": "r-d92d78896f83",
   "title": "Finite Wave Mode Replay",
   "titleBasis": "editorial",
   "type": "dataset",
   "project": "theory",
   "projects": [],
   "projectBasis": "unknown",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "unknown",
   "dateBasis": "unknown",
   "reviewedOn": "2026-10-15",
   "declaredDates": [],
   "status": "current",
   "statusBasis": "Cited by r-art-finite-waves as 'This edition’s finite-mode replay'. It is the 15 October local rerun. Not recovered.",
   "question": {
    "text": "As described in research edition 02, does the archived finite-wave lab reproduce when rerun for that edition?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, all 4,113 finite model cases and six independent numerical checks passed on the local rerun.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "As described in research edition 02, this repeats the same supplied model; it is not fresh experimental validation.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "Research edition 02 names no follow-up for the replay itself. The open step belongs to the handoff: an independently tested transfer to material electromagnetism.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
   },
   "ledFrom": [],
   "ledTo": [
    {
     "id": "r-art-finite-waves",
     "relation": "cites",
     "basis": "reading (verified)",
     "quote": "Finite_Wave_Mode_Replay.json",
     "quoteFrom": "r-art-finite-waves"
    }
   ],
   "source": {
    "url": null,
    "sha256": "d92d78896f83bf0c449fcad685bdd8660cf39d2e4a61ac8f869d2268ba1385bd",
    "bytes": 4979,
    "words": null,
    "access": "not-recovered",
    "aliases": [],
    "headings": 0,
    "figures": 0
   },
   "provenance": {
    "origin": "working library (not published)",
    "originalPath": "Finite_Wave_Mode_Replay.json",
    "authorBasis": "Anthony Michael Collado (research edition 02)"
   },
   "attachments": []
  },
  {
   "id": "r-1ee89abe25ea",
   "title": "Hubble Extended Likelihood Report",
   "titleBasis": "editorial",
   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "unknown",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "unknown",
   "dateBasis": "unknown",
   "reviewedOn": "2026-10-15",
   "declaredDates": [],
   "status": "reference",
   "statusBasis": "It appears only in research edition 02's source-file list (current-state.json, source-manifest.json) with hash and size. No article cites or summarises it, so its place in the Hubble line cannot be established.",
   "question": {
    "text": "unknown",
    "basis": "unknown"
   },
   "result": {
    "text": "unknown",
    "basis": "unknown"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "unknown",
    "basis": "unknown"
   },
   "nextQuestion": {
    "text": "unknown",
    "basis": "unknown"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
   },
   "ledFrom": [],
   "ledTo": [],
   "source": {
    "url": null,
    "sha256": "1ee89abe25ea89493da5d0209d7227a056a502c4759d14a425f50636d8e6c4de",
    "bytes": 10392,
    "words": null,
    "access": "not-recovered",
    "aliases": [],
    "headings": 0,
    "figures": 0
   },
   "provenance": {
    "origin": "working library (not published)",
    "originalPath": "Hubble_Extended_Likelihood_Report.md",
    "authorBasis": "Anthony Michael Collado (research edition 02)"
   },
   "attachments": []
  },
  {
   "id": "r-b4fc44aa4dcc",
   "title": "Hubble Joint Fit Report",
   "titleBasis": "editorial",
   "type": "report",
   "project": "theory",
   "projects": [],
   "projectBasis": "unknown",
   "series": null,
   "version": null,
   "seriesOrder": null,
   "date": "unknown",
   "dateBasis": "unknown",
   "reviewedOn": "2026-10-15",
   "declaredDates": [],
   "status": "unavailable",
   "statusBasis": "reviewed for research edition 02 (15 October 2026); source not published",
   "question": {
    "text": "As described in research edition 02, how far do joint fits with declared cosmological parameters move H₀ when the local datum is in the objective?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, a scalar endpoint reached H₀≈73.56 km/s/Mpc while the local-H₀ datum was in its objective, so it is a fit, not a prediction.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
   },
   "limits": {
    "text": "As described in research edition 02, optimizer stops and unfinished or nonstationary searches remain visible; agreement with a fit input is not an independent prediction.",
    "basis": "editorial"
   },
   "nextQuestion": {
    "text": "As described in research edition 02, the next test withheld the local H₀ datum from every fit objective.",
    "basis": "editorial"
   },
   "abstract": {
    "text": "unknown",
    "basis": "unknown"
   },
   "ledFrom": [],
   "ledTo": [
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   "id": "r-0d5e20fd16a6",
   "title": "Hubble Neutrino Budget Report",
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   "status": "unavailable",
   "statusBasis": "reviewed for research edition 02 (15 October 2026); source not published",
   "question": {
    "text": "As described in research edition 02, does replacing rather than adding a radiation component change the early expansion rate, and does that predict present H₀?",
    "basis": "editorial"
   },
   "result": {
    "text": "As described in research edition 02, the preflight separated replacement from added radiation; its extra-radiation control changed early expansion but was not a new present-day H₀ prediction.",
    "basis": "editorial"
   },
   "checks": {
    "text": "unknown",
    "basis": "unknown"
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   "limits": {
    "text": "As described in research edition 02, two score refinements failed their frozen tolerance and are kept as negative results.",
    "basis": "editorial"
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    "text": "As described in research edition 02, it is still open whether an early-expansion change predicts present H₀ under a full likelihood.",
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   "title": "Hubble Tau Shortcut Report",
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   "statusBasis": "reviewed for research edition 02 (15 October 2026); source not published",
   "question": {
    "text": "As described in research edition 02, can a full-spectrum rescaling that holds Aₛ exp(−2τ) fixed stand in for a complete spectrum recomputation?",
    "basis": "editorial"
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    "text": "As described in research edition 02, the scalar amplitude identity holds, but the full-spectrum proxy failed its frozen deviance tolerance, with a maximum error of 4.3053 against 2.",
    "basis": "editorial"
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   "checks": {
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    "text": "As described in research edition 02, this rejects that proxy only in its tested scope, not the familiar approximate amplitude–optical-depth degeneracy.",
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   "title": "Hubble Withheld Test Report",
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   "status": "current",
   "statusBasis": "Cited by r-art-hubble as the 'Withheld-local-H₀ result'. It is the latest step of the Hubble line in research edition 02. Not recovered.",
   "question": {
    "text": "As described in research edition 02, with local H₀ removed from every fit objective, which H₀ values do standard and scalar models reach?",
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    "text": "As described in research edition 02, the lowest standard point gave H₀=68.36 and scalar points 69.77 and 72.38, with a score gap of only 0.32; H₀ was not uniquely selected.",
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    "text": "As described in research edition 02, these are evaluated points from bounded searches, not posterior intervals, discovery significances or certified global minima.",
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    "text": "As described in research edition 02, convergence and starting-point studies, posterior or profile uncertainty and reserved independent probes are needed before any changed-model claim.",
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   "statusBasis": "Cited by r-art-questions-and-meaning as the 'Job 38 optical challenge'. ENG-028 (Job 38 Integrated Lab 0.2.0) is still open in research edition 02. Not recovered.",
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    "text": "As described in research edition 02, can an optical reconstruction inspired by Job 38 infer surface shape from images under changing illumination?",
    "basis": "editorial"
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    "text": "As described in research edition 02, a wrong-normal model survived image holdouts when illumination and calibration changed with it.",
    "basis": "editorial"
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    "text": "As described in research edition 02, a convincing rendered surface or held-out image fit is not automatically a correct reconstruction, and no optical fit certifies a theological reading.",
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    "text": "As described in research edition 02, use independent geometry and light calibration, and reserve new material and lighting conditions.",
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   "statusBasis": "Cited by r-art-state-of-the-theory as the 'Current claim ledger' and by r-art-measurement as the 'Measurement claim ledger'. Not recovered.",
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   "result": {
    "text": "As described in research edition 02, the strengthened admission path checks file hashes, freeze and access chronology, calibration references, units and covariance; its positive fixtures certify software only.",
    "basis": "editorial"
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    "text": "As described in research edition 02, its fixtures use synthetic data and cannot authenticate a laboratory, supplied timestamps or unreported data reuse.",
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    "text": "As described in research edition 02, all 57 engine records still need physical inputs before a new measured-prediction claim can enter.",
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   "id": "theory",
   "title": "The Theory of Reality: a projection idea that answers for its evidence",
   "question": "Can observable reality be described as a projection of a richer hidden state, and can that idea be made exact, executable and open to refutation?",
   "why": "It is the programme's founding claim. The manuscript names the engines and labs as its computational formalisation, so each lab's limits become limits of the theory.",
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     "built": "Projective Ripple Reality (4 September 2026): typed projective layers, an inverse limit, a reversible visible-to-hidden ripple theorem and a collision-capacity bound.",
     "found": "The theorems are exact inside the model. The record separates mathematics, physics and theology and lists what it does not establish.",
     "ledTo": "Eight conditions a physical version must meet, including a preregistered novel prediction and a competing null. The Reality Bit Engine describes itself as an implementation of the computable core.",
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     "built": "Rope Tomography Lab (5 September): a synthetic rope-and-hairs causal model with withheld-frequency prediction, then release 0.2.0, whose exact audit corrected the main paper's seven-stage closure argument.",
     "found": "Complete deterministic closure is idempotent, so the old theorem had no valid instance, and revision 1.14 retracted it: seven is 'a chosen register size, not a dimensional theorem'.",
     "ledTo": "Revisions 1.39, 1.48, 1.49 and 1.58 keep the correction in force; the lab turned to sequential evidence rules.",
     "verified": true,
     "checkedBy": "path skeptic (citation completed)"
    },
    {
     "records": [
      "r-570b32f2f2b6",
      "r-fe52db8f3602",
      "r-1d8715c179d2"
     ],
     "built": "Rope Lab 0.3.0–0.13.0 (revisions 1.16–1.26): anytime-valid e-processes under frozen error budgets, ending with a conditional sign-balance rule.",
     "found": "Failures stay on record: a 0.12 candidate failed its frozen loss guard, ORing two 1% rules lost the guarantee, and the sign rule failed under persistent dependence.",
     "ledTo": "Revision 1.27 built a Born-outcome frontier on these rules; release 0.14.0 (revision 1.39, 20 September) repaired the sign rule within a declared Markov class only.",
     "verified": true,
     "checkedBy": "path skeptic (citation completed)"
    },
    {
     "records": [
      "r-9c556a0548e7",
      "r-ef2aa36ff943",
      "r-c94337709c96",
      "r-d1230f150e39",
      "r-1d8715c179d2"
     ],
     "built": "A court-grade adversarial audit with a claim ledger and prior-art table, and Wallbreaker Protocol P3's wall ledger with the three-qubit P3-R1 pilot (15 September; revisions 1.27–1.29).",
     "found": "A coherent framework with an eight-cycle hypothesis, not proven physics. P3-R1's software passes its audit and fails closed; no QPU job was run, so there is no physical evidence.",
     "ledTo": "The audit names the next admissible act: activate one backend, obtain independent calibration, anchor the frozen manifest externally. Revisions 1.30 onward bring the labs in.",
     "verified": true,
     "checkedBy": "path skeptic (citation completed)"
    },
    {
     "records": [
      "r-8932ff1185c8",
      "r-be3eaac1ae3c",
      "r-2711bdafd755",
      "r-1d8715c179d2"
     ],
     "built": "Revisions 1.30–1.68 bring the chess, hydrogen, matter, fixed-grid and element labs into the manuscript; the 1.70 draft (20 September) adds Inversion Theory, which two separate audits test.",
     "found": "The rigid-motion theorems survive, but the dimension-count, achiral-waypoint, radius and racemisation inferences fail; the tested wave constructions do not distinguish an extra dimension from ordinary space.",
     "ledTo": "The main line took another course: its revisions 1.69–1.70 record Element Projection Lab 0.8.0–0.9.0, and the draft's Inversion Theory appendix does not carry over.",
     "verified": true,
     "checkedBy": "path skeptic (citation completed)"
    },
    {
     "records": [
      "r-cae4bcf2f553",
      "r-88d96126ec54",
      "r-1d8715c179d2"
     ],
     "built": "The Wave–Observer formulation (Fixed Grid String Lab 0.8.0) and a 20-sector physical coverage ledger with a checked U(1) charged-wave module (0.9.0; revisions 1.83–1.84, 21 September).",
     "found": "Waves give a shared mathematical language with typed state spaces; gauge covariance alone does not fix the Hamiltonian. No measured evidence is claimed.",
     "ledTo": "A self-consistent field–matter benchmark (Appendix CH) and lattice-versus-continuum identifiability tests in revisions 1.85–1.97.",
     "verified": true,
     "checkedBy": "path skeptic (citation completed)"
    },
    {
     "records": [
      "r-1d8715c179d2",
      "r-e38932881878"
     ],
     "built": "Manuscript 1.97 (26 September): appendices through CT, with coupled gauge–matter convergence checks and identifiability results for shadows, optical tails and paired references.",
     "found": "A shadow test cannot by itself locate a tail's cause, and a sample-only path delay can mimic a material delay. No extra dimension follows; revision 1.81 retracts a smooth-structure claim.",
     "ledTo": "An intervention validated to change only one mechanism is required. A 6 October handoff packaged 1.97 unchanged beside five executed observer, clock and Maxwell packages.",
     "verified": true,
     "checkedBy": "path skeptic (citation completed)"
    },
    {
     "records": [
      "r-da2ac4d4dbc6",
      "r-art-state-of-the-theory",
      "r-art-measurement",
      "r-bd1a41299f97",
      "r-c6f4b7c99e84",
      "r-6aa188cbf405"
     ],
     "built": "Manuscript 2.42 and research edition 02 (15 October): a 57-entry engine registry, a 1,365-test regression, a gap register and content-bound measurement admission.",
     "found": "Recoverable implementation work is checked, but none of the 57 records is admitted as a new measured physical prediction; treating shared calibration as independent cuts simulated coverage to 35.8%.",
     "ledTo": "A proposed scale-transfer ladder and a first physical target: a forward Aharonov–Bohm apparatus prediction scored on newly reserved frames.",
     "verified": true,
     "checkedBy": "path skeptic"
    }
   ],
   "current": "Manuscript 2.42 (15 October 2026) is a revisable framework whose text is registered but not recovered; 1.97 is the latest readable text. No physical fourth spatial direction is established.",
   "nextQuestion": "Can one link of the proposed scale-transfer ladder carry a frozen prediction, with independent calibration, that survives newly reserved measurements and a named competing model?",
   "basis": "editorial"
  },
  {
   "id": "drct",
   "title": "DRCT: when is an observation enough, and what must be added?",
   "question": "When is a partial observation of a system enough to predict its future, what exactly must be added when it is not, and can a machine find that addition unaided?",
   "why": "DRCT v1 redefines the programme's D0, first an intuition of truth, as zero unresolved predictive information, so each proposed new coordinate becomes a testable requirement.",
   "clusters": [
    "drct-p3",
    "chess-rope-prng-rbe"
   ],
   "steps": [
    {
     "records": [
      "r-9f79fa0d0806"
     ],
     "built": "DRCT v1 (saved 23 August): the coarsest predictive refinement of an observation, the predictive deficit H(C*|Z), a missing-bit bound and a closure spectrum.",
     "found": "Deterministic re-expression cannot recover erased distinctions, and in some systems no amount of observed history repairs the projection; genuinely new observables are needed.",
     "ledTo": "The question of what a new observable must distinguish.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-1abe41bc67c3",
      "r-17fae99d3cec"
     ],
     "built": "v2–v3: a closure-defect graph (repair as graph colouring, library repair as set cover), then a semantic-free bridge to executable measurements and active probes.",
     "found": "Exact pairwise measurement specifications and impossibility certificates, without naming the hidden coordinate; semantic meaning is optional for closure.",
     "ledTo": "v4 names the remaining reliance on hidden-state labels as the next wall.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-b590d28cd189",
      "r-6040e80f4b3d",
      "r-ab7a8225476b"
     ],
     "built": "v4–v5: blind reconstruction from observable histories and future tests (a saved log reports an exhaustive pass on 5,832 small Moore systems), then statistical closure on one noisy stream.",
     "found": "Failure of closure can be certified locally; in general, sufficiency cannot be proved from a finite passive corpus. v5 calls exact future equality 'the wrong primitive' for physical data.",
     "ledTo": "The next readable record tests the calculus on a small trained transformer; packages for versions 7 and 8 are listed in the file catalogue, but their contents are not hosted.",
     "verified": true,
     "checkedBy": "path skeptic (corrected an overstatement)"
    },
    {
     "records": [
      "r-d4ca6f5515b8",
      "r-1becea26408c",
      "r-b6069be05c7f",
      "r-8f54278510af"
     ],
     "built": "v6 black-box transformer stress test (all 780 contexts), v9 intervention closure depth with hashed predictions, v10 module tomography, v11 gauge and port theorems.",
     "found": "Logits fix the function but not the weights; module-level probes recover all 1,428 parameters; identifiability is always relative to the experimental interface.",
     "ledTo": "Choosing the next experiment automatically.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-9a6ff68abec1",
      "r-a76d46a48686"
     ],
     "built": "v12–v13: information-per-cost experiment planners, first finite, then continuous along the principal-eigenvector experiment direction.",
     "found": "An exact cost lower bound of 9 in a 5,760-mechanism gauge laboratory; closure is stated relative to a declared experimental resolution.",
     "ledTo": "Synthesising the sensor itself.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-341d6e48b548",
      "r-7a6adf9e99db",
      "r-2ab60a5f99b1"
     ],
     "built": "v14–v16: symbolic sensor-equation synthesis, invention of an unknown binary operation as a Cayley table, and minimum-arity relation discovery.",
     "found": "Each step removes one supplied assumption but keeps a meta-language: relations, arity, affine composition.",
     "ledTo": "Whether invented relations become reusable concepts.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-515974945d3b",
      "r-2aeab23576cd",
      "r-6692434a8200",
      "r-d0801d0f81e1",
      "r-519566f74c0d"
     ],
     "built": "v17–v21: concept promotion with negative controls, a learned sameness rule, generator invention from anonymous worlds, morphism-type selection and morphism-ontology induction.",
     "found": "Labels such as 'bijection' arise only as readings of learned anonymous classes, and D4 is recognised after reconstruction; row and column degree predicates remain the supplied prior.",
     "ledTo": "The open wall named by v21: inventing the structural predicates themselves.",
     "verified": true,
     "checkedBy": "path skeptic"
    }
   ],
   "current": "DRCT ends at v21 (saved 23 August 2026), which names its next wall; v21 still supplies row and column degree predicates as its prior.",
   "nextQuestion": "Can the structural predicates used to describe relations be invented rather than supplied, so that no primitive predicate language has to be assumed?",
   "basis": "editorial"
  },
  {
   "id": "rrls",
   "title": "RRLS: from a pattern compressor to a closed P versus NP proof gate",
   "question": "Can a lift–compile–collapse engine find compact exact relations in data, and later in SAT, so that apparent search collapses without hiding exponential work?",
   "why": "The founding note's idea: the right coordinates make a hidden relation short. RRLS tests it on compressors, then on SAT, where a universal collapse would mean P = NP.",
   "clusters": [
    "rrls-releases",
    "rrls-proofs",
    "theory-core",
    "chess-rope-prng-rbe"
   ],
   "steps": [
    {
     "records": [
      "r-370642ea780a",
      "r-0e49c4b376ca",
      "r-fb5c05cfc8ce"
     ],
     "built": "Notes of 23 August lift a generator and price bars into relational coordinates; a pasted note of 5 September turns hidden relations into an ANF and GF(2) basis search.",
     "found": "The PRNG note calls its ingredients established mathematics, with novelty awaiting a benchmark. In the pasted note a 5-term law looked like 595 terms in the wrong basis.",
     "ledTo": "The pasted note names the Relational Rotation-Lift Solver (RRLS) and carries its v0.1 code; no later record cites the August notes.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-19549c402f21",
      "r-95b0a3b2973e",
      "r-451033824569",
      "r-e4a93778a3dd",
      "r-b130d67684d1",
      "r-233707f9fb01"
     ],
     "built": "RRLS Studio v0.7–v0.12 (5 September): a persistent relation vocabulary, a cross-domain corpus compiler, a Common Crawl mode, then leakage gates, support-gated predictors and an exact operator market.",
     "found": "Standard compressors won in v0.10–v0.11, and an earlier ~2x result was discarded as invalid. In v0.12 the transforms added only 0.421% beyond per-block coder selection, needing replication.",
     "ledTo": "A change of target: from compression ratio to whether lifting removes search, with a hard proof gate on SAT.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-ed2327e18787",
      "r-c0c17efdaef1",
      "r-cdeb9ec890f8"
     ],
     "built": "v0.13–v0.14: a SAT engine with exact polynomial lifts (matching, GF(2), 2-SAT, Horn) and a proof gate that stays closed while any branching remains.",
     "found": "Pigeonhole and parity collapse to one node; random 3-SAT still branches. Local zeroing always works, but gluing frames is the original problem; pairwise projections lose joint structure.",
     "ledTo": "A separate audit of the v0.13 source, and the question of which representation could carry boundary relations cheaply.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-089c94a4ecca",
      "r-ee0f8cf32e7f",
      "r-9be766ae72f6",
      "r-90009b9e2f31"
     ],
     "built": "Alongside the releases: audits of an RRLS attachment and of v0.13's SAT module (a merge defect fixed), then checked CDCL/RUP learning and an exact-cover exclusivity lift.",
     "found": "A two-relation vocabulary is already NP-complete; the refinement's large speed-ups over v0.13 (about 75-fold on one case) came only from a constructed disguised-Horn family. RUP-only proofs meet Haken's bound, and an order-eight table defeats degree 2.",
     "ledTo": "A search for invariants that separate satisfiable from unsatisfiable formulas.",
     "verified": true,
     "checkedBy": "path skeptic (corrected an overstatement)"
    },
    {
     "records": [
      "r-01881573f5be",
      "r-2f8e1d2a9608",
      "r-3abfc6df0612",
      "r-d9f96ddde453"
     ],
     "built": "A counterexample-guided invariant catalogue tested on a frozen fresh cohort, then the RE SAT structure laboratory: affine recovery from CNF, a learned route policy and verified relation reuse.",
     "found": "Opposite-label collisions fell from 290 to one, yet a fresh SAT/UNSAT pair shares the whole fingerprint. OR is no affine projection; solve-plus-check time fell 2.78-fold on one 34-case suite.",
     "ledTo": "Nonlinear residual constraints remain the deeper obstacle.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-080f17275b94",
      "r-25cddfb8e1cd",
      "r-c2959fe23319",
      "r-11c0d538ba77",
      "r-399db0176f55",
      "r-18ea45e87f1a"
     ],
     "built": "v0.15–v0.20: knowledge-compilation targets, extension naming, reversible lifts, Nullstellensatz rank, feature bases synthesised from clause structure and a structure-by-algebra tractability map.",
     "found": "Four walls: compact is not tractable; naming relations is analogous to Extended Frege; straightened equations leave fibre emptiness; affine rotations cannot lower refutation degree. Random 3-SAT stays unresolved.",
     "ledTo": "Using the string and hair picture to design exact synchronisation operators; releases v0.21–v0.23 are not in the library.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-58da85d88c36",
      "r-39d5b1d524f9",
      "r-defbb8d6fa7e"
     ],
     "built": "v0.24–v0.26: universal-cycle tomography, a ladder of exact synchronised-collision counters, then a self-audit called the exactness firewall.",
     "found": "Merging histories with identical futures led v0.25's ladder, but the audit found those counts syntactic: 10,302 residual CNFs collapse to 2 semantic futures. An export bug was fixed.",
     "ledTo": "Semantic rather than syntactic futures as the complexity observable.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-4d0f85755df4",
      "r-8cae97ff1389"
     ],
     "built": "v0.27 (6 September), a dimensional future compiler that jumps to the next event, then an independent source audit and the v0.27.1 repair.",
     "found": "v0.27's 97-digit collision tick remains a historical, unreproduced claim. The audit repaired four defects and the impulse formula, and proved a finite prefix cannot certify generators outside a declared class.",
     "ledTo": "Adversarial testing of generator discovery; manuscript revision 1.15 records the audit.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-49eed9439785",
      "r-b109c92b746e",
      "r-034529e4bc8c"
     ],
     "built": "v0.28: an adversary forge, generator market, counterexample miner and a proof attacker that treats every branch as a proof failure; the minimised CNF is kept.",
     "found": "A hard n=40 snapshot had 38,191 residual syntaxes but one semantic future; on one explicit connected 3-CNF family, anchored polynomials need at least 3^m terms; the minimised failure was a budget limit, not a lower bound.",
     "ledTo": "Canonicalising residual futures without truth tables.",
     "verified": true,
     "checkedBy": "path skeptic (corrected an overstatement)"
    },
    {
     "records": [
      "r-04183c7d3acc",
      "r-65b761028cb7"
     ],
     "built": "v0.29–v0.30: direct CNF-to-ROBDD semantic canonicalisation with early FALSE checkpoints, then a dual-phase inversion and sign-gauge quotient.",
     "found": "ROBDDs recovered the exact semantic classes without truth tables, but compiling them still hit node caps; phase symmetry explained only a fraction of the redundancy.",
     "ledTo": "The open target: polynomial semantic canonicalisation, which no release achieves.",
     "verified": true,
     "checkedBy": "path skeptic"
    }
   ],
   "current": "v0.30 is the latest release and the P = NP gate stays closed. Edition 02 still lists no P = NP proof among its established results.",
   "nextQuestion": "Can a canonical quotient of all live futures be kept current by polynomial local updates for arbitrary CNF, without truth tables, unrestricted branching or exponential order search?",
   "basis": "editorial"
  },
  {
   "id": "rbe",
   "title": "Reality Bit Engine: Millennium-problem routes with their scope stated",
   "question": "What can the programme actually prove on the way to the Riemann Hypothesis, P versus NP and Navier–Stokes, and how can each claim be checked independently with its scope stated?",
   "why": "The engine implements the framework's computable core. Its prize laboratories turn each Millennium target into an explicit missing universal step instead of relabelling finite computation as a solution.",
   "clusters": [
    "rrls-proofs",
    "theory-core",
    "chess-rope-prng-rbe"
   ],
   "steps": [
    {
     "records": [
      "r-1e48abf03e8b",
      "r-a5335a10ec56"
     ],
     "built": "Engine v0.11–v0.12 (4 September): restricted written proofs (Lagarias for integers with at most two prime factors, exact pigeonhole formulas, two fluid obstructions) and a standalone certificate verifier.",
     "found": "The restricted results held; the verifier rejected all 26 corruptions. The σ(n) ≤ nH_n route failed at n = 12, and 'irrefutable' was declined as exceeding the evidence.",
     "ledTo": "A pass aimed at the stated missing arguments.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-0aae1663eca5"
     ],
     "built": "v0.13: monotonicity and canonical/record reductions for the Lagarias check, a SAT summary-capacity theorem and an amplitude argument for fluid energies.",
     "found": "Lagarias holds to 10^24 (known method). Constants below γ cannot close the all-integer route; exact one-way equality summaries need 2^n states; no positive-order Sobolev energy is universally monotone.",
     "ledTo": "The next release turned to computable fluid certificates.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-671b2e89ebc7",
      "r-fde8fc6a803b"
     ],
     "built": "v0.14–v0.15 (5 September): an all-time small-data certificate from exact Fourier data, then a relative certificate around a large exact shear.",
     "found": "Small data and small perturbations of a large shear are certified for all time; rejecting a sufficient condition is not evidence of blow-up. A hand calculation's omitted term was caught.",
     "ledTo": "v0.15 specifies continuous-time residual and omitted-mode bounds for validating computed trajectories and focuses proof effort there.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-b4a0c581b998",
      "r-d20df8c9f37b"
     ],
     "built": "v0.16–v0.17: continuous-time residual bounds including omitted modes, affine error envelopes and standalone checkers, then a sharper scalar bound and an 18-mode nonlinear reference.",
     "found": "Certificates were accepted up to perturbation 0.1. Endpoint-only, retained-mode-only and small-V shortcuts were refuted; perturbation 0.5 stayed unresolved and was frozen as a target.",
     "ledTo": "Targeting the frozen perturbation-0.5 failure.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-8cbc00e49b56"
     ],
     "built": "v0.18: residual-directed mode selection, local error caps, a finite-system induction engine and a proof director that checks scope.",
     "found": "The perturbation-0.5 input is certified for all time; earlier policies stay frozen as failed estimates, and all three universal targets are recorded as open.",
     "ledTo": "v0.19's universes and proof bridges.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-edfdb0a56bf4",
      "r-95573c01bc39"
     ],
     "built": "v0.19–v0.20: finite-system safety by checked SAT certificates, transfer through verified maps, coupled error bounds, then all-word observability and two-sided null-axis probes.",
     "found": "Exact recovery conditions and ambiguity sets, and written obstructions: reflection symmetry alone does not force critical-line zeros; one-bit local search can stall on satisfiable formulas. All three problems stay open.",
     "ledTo": "A circular chain of assumed implications decides nothing; every prize-lab certificate carries its open boundary.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-1360ddb369ef"
     ],
     "built": "The v0.20.0 README: 101 enumerated capabilities in standard-library C++17 with Python companions, each prize-lab certificate carrying its missing universal step.",
     "found": "The algebra is executable and finite certificates check, but the engine does not establish seven physical layers, physical quantum hardware, or any prize result.",
     "ledTo": "Explicit proof obligations, and the engine version still cited by manuscript 1.97.",
     "verified": true,
     "checkedBy": "path skeptic"
    }
   ],
   "current": "Specific periodic fluid inputs, including the perturbation-0.5 shear, carry independently checked all-time certificates. Lagarias is verified only to 10^24; all three universal problems remain open.",
   "nextQuestion": "unknown",
   "basis": "editorial"
  },
  {
   "id": "chess",
   "title": "Dimensional Chess: what a lift is worth once it must carry a proof",
   "question": "Can lifting chess into the right state coordinates (symmetry, history, relations) give exact, independently checkable results, and can it narrow the value of the initial position?",
   "why": "C1 applies the theory's computational rules to a closed chess universe, where success and failure can be checked exactly; revisions 1.30–1.38 carry the series into the manuscript.",
   "clusters": [
    "chess-rope-prng-rbe"
   ],
   "steps": [
    {
     "records": [
      "r-6875140b9128",
      "r-3fe7cf744ab8"
     ],
     "built": "C1–C2 (15 September): exact KRK and KQK solutions with a proved D4 symmetry quotient, a frozen full-chess target (FCS-2023) and an interval-dominance pruning theorem.",
     "found": "Exact endgame values with independent verifiers, but the quotient by complete future laws barely compresses, and the ideal pruning numbers come from the answer itself.",
     "ledTo": "The gap is named: cheap relational bounds that certify move deletions before a position is solved.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-d06ca187fd05",
      "r-192640670d05"
     ],
     "built": "C3–C4: a full-move state engine (castling, en passant, promotion, repetition and move-count draws; dead-position predicate partial) passing perft, then table-hidden constraint waves on KRK and KQK.",
     "found": "An exact depth-four probe leaves the root at [−1,+1]. Constraint waves prove every endgame value but keep almost one signature per state: a compressed tablebase.",
     "ledTo": "C5 moves from compressing state to ordering search.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-88c2103b5c5b",
      "r-9b58e8d87cb0",
      "r-b7e0db547cd6"
     ],
     "built": "C5–C6: a tension heat map, then a legal exchange-dependency graph for move ordering; run R1 applies C6 to the real initial position to seven plies.",
     "found": "Both cut nodes on tactical sets, though heat is no evaluation; at the initial position C6 used about 18% more nodes than lexical order. Neither side forces mate within seven plies.",
     "ledTo": "R1's conclusion: ordering is not the wallbreaker; a sound bound on unexpanded continuations is needed.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-bc77a3eb88d2",
      "r-709ba3d90a0c"
     ],
     "built": "C7–C8: a horizon-safe projection dropping history coordinates that cannot matter in time, then learned movement-frequency classes to order defender moves.",
     "found": "Neither side forces mate within nine plies, verified independently. Frequency ordering cut White's proof time by about 29% but failed for Black; richer variants failed outright.",
     "ledTo": "The open problem: a learned relation that carries a sound interval or proof obligation.",
     "verified": true,
     "checkedBy": "path skeptic"
    }
   ],
   "current": "C8 is the latest record: no forced mate within nine plies for either side, and the root interval is still [−1,+1]. Edition 02 notes 17 original C8 JSON records remain absent.",
   "nextQuestion": "Can a compact, transferable abstraction carry proof-checked lower and upper bounds over many continuations, narrowing the root interval rather than reordering an exponential search?",
   "basis": "editorial"
  },
  {
   "id": "hydrogen",
   "title": "From one hydrogen atom to 118 elements",
   "question": "Can a higher-dimensional projection mechanism generate what is seen in hydrogen and the elements, or do standard physics and explicit observation operators already account for it?",
   "why": "Hydrogen is the simplest exactly solvable atom, so any projection mechanism must first reproduce it; the elements, crystals, optics and ATLAS data then extend the test to measured inputs.",
   "clusters": [
    "hydrogen-elements"
   ],
   "steps": [
    {
     "records": [
      "r-26ff0912ad26",
      "r-62fcd117c532"
     ],
     "built": "Hydrogen Matrix Lab 0.1–0.2 (20 September): an exact 1s density matrix, a time-dependent 1s+2p_z coherent density and, kept separate, a synthetic touching-3-sphere rotor in four coordinates.",
     "found": "The engine matches standard quantum mechanics under independent checks; the rotor is implemented but explicitly not evidence that the geometry generates hydrogen.",
     "ledTo": "A frozen train/holdout test of the rotor against the quantum reference.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-249244afa345",
      "r-8da92f374f97"
     ],
     "built": "0.3–0.4: a NIST-calibrated clock, a frozen 8/16 phase holdout with five gates, a bounded multi-rotor rescue and a temperature/phase-direction test.",
     "found": "The rotor is worse than both simple baselines and is rejected; the rescue fails five of six gates; temperature does not reverse phase.",
     "ledTo": "Both releases ask for equation-level physics (a Hamiltonian or continuity equation) instead of rotor tuning.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-81b60f656540",
      "r-12135221929f"
     ],
     "built": "0.5–0.6: a frozen spectroscopy ladder (fixed proton, reduced mass, Dirac) and the probability-current field with electric-dipole selection rules.",
     "found": "Standard corrections remove 99.38% of the Lyman-alpha centroid error; not every density beat appears as a one-photon electric-dipole harmonic.",
     "ledTo": "The next release turned to a separate audit of golden-ratio claims; 0.6's proposed driven two-gauge test was not carried out here.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-51077294ef69"
     ],
     "built": "0.7: an exact Q(√5) audit of golden-ratio claims and an exhaustive bounded (n ≤ 40) scan of hydrogen gap ratios.",
     "found": "No exact golden ratio among ideal hydrogen gaps (a written proof covers all levels); an exact golden rotation cannot live on a finite angular grid.",
     "ledTo": "0.7 asks for a derived golden prediction; the next release instead builds a forward observer compiler.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-456f359a0490",
      "r-8f4bc9b887c3",
      "r-9c0d442dad18",
      "r-4d178b10ff09",
      "r-5238c9f96c50"
     ],
     "built": "0.8: one declared state compiled into density, current, charge, dipole and far-field light, with a registry of blocked channels and a 40-claim ledger.",
     "found": "The classical expectation-dipole field carries exactly half the initial quantum E1 energy-loss rate: a quantised field is missing, and the gap is no evidence for a unique higher-dimensional cause.",
     "ledTo": "The Element Projection Lab, which records that it leaves Hydrogen Matrix Lab 0.8.0 unchanged.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-bb51103f7acd",
      "r-634ff256fff3",
      "r-49a533cb5852",
      "r-3636ed2ff4b1"
     ],
     "built": "Element Projection Lab 0.1–0.6: a 118-element atlas, measured-input gold and silver optics, a frozen band-response benchmark, a dimension-evidence gate and an audit of ATLAS significances.",
     "found": "Shared FCC structure does not force colour; the published ATLAS search fails the cross-channel screen; the audit is retrospective, not blind.",
     "ledTo": "Releases 0.7–0.9, known only from manuscript revisions 1.68–1.70, prepared the recast; 0.10 then checked all four published observed contours.",
     "verified": false
    },
    {
     "records": [
      "r-615550862b88",
      "r-2b014f84d8bb",
      "r-fe6d26d12295"
     ],
     "built": "0.10–0.12: an exact audit of 24 HEPData contour tables, a guarded parameter explorer and a synthetic detector-response closure test.",
     "found": "The benchmark is excluded by all four observed contours; efficiency and signal strength are exactly degenerate. The recast stays blocked until real response, efficiency and likelihood inputs exist.",
     "ledTo": "0.12 asks for an efficiency-calibration sample; the series next turns to crystal geometry and colour.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-9bcf81fa9421",
      "r-5860aee36113",
      "r-33deacfda028"
     ],
     "built": "0.13–0.14 (21 September): a crystal periodic table with sunlight colours from measured optical constants, a corrected local-environment display, and completion to 90 cells and 30 optical datasets.",
     "found": "Colour is reconstructed from measured inputs, not predicted from geometry; missing data stay visibly missing; two incomplete Pr/Nd transcriptions were rejected.",
     "ledTo": "Computing interference directly from the frozen crystal coordinates.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-a00a6dab1f40",
      "r-c60f72e23a0b"
     ],
     "built": "0.15–0.16: a structure-factor diffraction observer reproducing NIST SRM 640g's tabulated (computed, non-certified) peak angles, then a combined atom, wave-crossing and crystal-face observer.",
     "found": "No atomic Bragg shell reaches visible light; a homometric pair proves intensity alone cannot fix geometry; wave crossings make surfaces but add no measured coordinate.",
     "ledTo": "Gates that require frozen predictions against independent measurements.",
     "verified": true,
     "checkedBy": "path skeptic"
    }
   ],
   "current": "Hydrogen Matrix Lab stands at 0.8 and Element Projection Lab at 0.16: standard physics plus explicit observers accounts for each tested feature, and the collider recast stays blocked.",
   "nextQuestion": "Can any derived operator, with units, coupling and a frozen parameter budget, predict a fresh measured observable better than the matched standard baseline?",
   "basis": "editorial"
  },
  {
   "id": "matter",
   "title": "Matter Harmony and atomic spectra: testing hidden geometry against matter and light",
   "question": "Can molecular arrangement, a proposed higher-dimensional 'harmony' or a musical reading of spectra predict measurable properties of matter and light?",
   "why": "The theory proposed hidden geometry beneath matter. These labs set bounded tests that could fail, keeping mathematical constructions apart from physical evidence; revisions 1.44–1.58 record them.",
   "clusters": [
    "matter-revisions",
    "october-edition"
   ],
   "steps": [
    {
     "records": [
      "r-a76f54a6d077",
      "r-565c4b7a0100"
     ],
     "built": "Matter Harmony Lab 0.1–0.2 (revisions 1.44–1.45, 20 September): a Wiener-index rule fitted to two pentane isomers, then carbon count plus Wiener and first Zagreb indices fitted to all C5–C6 alkanes, each scored on held-out isomers.",
     "found": "Topology helps boiling (C7 MAE 8.554 to 4.500 K) but fails on fusion (MAE rises from 27.574 to 135.934 K); a coarse elemental signature fails the Ag/Pd resistivity control.",
     "ledTo": "A single scalar harmony coordinate was rejected, and the lab turned to explicit latent-motion models.",
     "verified": true,
     "checkedBy": "path skeptic (corrected an overstatement)"
    },
    {
     "records": [
      "r-1dcee8467de9",
      "r-876994ae70a5"
     ],
     "built": "0.3–0.4 (revisions 1.46–1.47): explicit five-coordinate skew-symmetric rotations for 17 alkanes and a 64-molecule water animation.",
     "found": "Shuffled property labels decode as exactly as true ones; uncoupled hidden rotations are invisible and fixed ticks alias frequencies, so pictures cannot identify hidden rotations.",
     "ledTo": "Identifiability became the central question, with ordinary physical observers as baselines.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-a3fce32241d0",
      "r-fa4c581af7dc",
      "r-7ba09023fac2",
      "r-21c9ff49e14b"
     ],
     "built": "0.5–0.8 (revisions 1.48–1.51): an explicit-charge dielectric oscilloscope, a Sun–water–eye optics observer, a water-drop acoustic observer and a bubble inverse problem.",
     "found": "Every observation map is many-to-one: identical polarisation traces, colour metamers, intensity without phase, and a 401-state bubble family whose endpoint pressure traces agree to 3.667e-16 Pa.",
     "ledTo": "Missing information after observation cannot be assigned to one hidden mechanism; ensemble variables came next.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-3a2a485fc9f0"
     ],
     "built": "0.9 (revision 1.52): an isolated-mode counterexample and a two-component collective spectrum for phase.",
     "found": "One H2O vibration vector fits solid, liquid and gas alike, and the collective coordinate is continuous with no universal thresholds.",
     "ledTo": "Phase is treated as an ensemble property, and the five-dimensional 'harmony' was given an exact definition.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-a19a33573c53",
      "r-03ea1efe29ee",
      "r-7aa233486073"
     ],
     "built": "1.0–1.2 (revisions 1.53–1.55): a complete taxonomy of five-coordinate linear harmonies, a Balmer spectroscopy gate and observers in latent dimensions 4 to 9.",
     "found": "Five coordinates carry at most two frequencies, failing the four-line Balmer gate by two; eight dimensions reach four, but matching the count predicts nothing about hydrogen.",
     "ledTo": "Feature counting gave way to a frozen transition holdout (revision 1.56), then an isotope gate (1.57), known only through the README, ledger and manuscript.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-7c616040c25f",
      "r-50f47ab4cdb8",
      "r-ea8e9ad72c3a",
      "r-4286df93f3ee"
     ],
     "built": "1.5.0 (revision 1.58): a Yukawa-like operator frozen at the electron reduced Compton wavelength, scored once on the historical H–D 2S–8S isotope shift, with a 109-claim ledger.",
     "found": "No predictive credit (−0.700628 to −0.720112 sigma), and the target's uncertainty is 51.326 times the effect, so it is not excluded either; non-rejection is kept as ambiguity.",
     "ledTo": "Choosing targets by resolving power, measured before the central value is examined.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-c69c23892b03",
      "r-435b7200338e",
      "r-c74f4adf9d1f",
      "r-92f68f02a2fa"
     ],
     "built": "A parallel spectral line (21 September): Balmer lines mapped to notes, a π expression for alpha, then 11,729 NIST lines from 99 elements tested for shared musical structure.",
     "found": "H-alpha sits 0.165 cents from G-sharp, yet 23.6% of tuning offsets fit the seven-line pattern at least as well; the π expression misses. No shared factor or winding law survived.",
     "ledTo": "The element study reuses the hydrogen study's 40-octave mapping; an At/Fr cluster picked after looking at the chart was tested separately.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-03af7a213e27",
      "r-07cef9ed332f",
      "r-6df375e4347b"
     ],
     "built": "An At/Fr follow-up using published thesis and preprint measurements, an analytic slope check, and a renderer checkpoint with an exact energy-loop checker.",
     "found": "The At/Fr cluster does not generalise; the plot's slopes are imposed by the note mapping; the At loop closures hold only because inputs came from the same levels.",
     "ledTo": "A proposal to freeze one hydrogen emission case, with preparation, profile, observer and error budget, before comparing it with an independent measured spectrum.",
     "verified": true,
     "checkedBy": "path skeptic"
    }
   ],
   "current": "Matter Harmony Lab stands at 1.5.0: every hidden-geometry candidate tested is rejected, non-identifiable or unresolvable with the data used, and ordinary physics accounts for the bounded results.",
   "nextQuestion": "Which unscored transition has a frozen operator contrast large enough, against full correlated uncertainty, to separate the models before its value is examined?",
   "basis": "editorial"
  },
  {
   "id": "grid",
   "title": "Fixed grids, ticks and shadows: what a discrete model can reveal",
   "question": "Can a fixed spatial grid, a universal time tick or a hidden extra dimension be identified from what an observer can actually measure?",
   "why": "The programme proposed a fixed grid, a tick and extra dimensions. Whether observations could identify them decides whether those ideas can become testable physical claims.",
   "clusters": [
    "gauge-optics-shapes",
    "theory-core"
   ],
   "steps": [
    {
     "records": [
      "r-5d2c11aea25f",
      "r-24c14a8b651c"
     ],
     "built": "Fixed Grid String Lab 0.1 (20 September; revision 1.43): a tick-rejection rule against measured intervals and an exact reversible four-coordinate integer string, with a typed claim ledger.",
     "found": "Three candidate ticks fail; the Planck-time tick passes only trivially. Any small enough tick fits finite data, and decimal rounding can fake a common tick.",
     "ledTo": "The proposed next test was a gauge-consistent hydrogen Hamiltonian; the next release froze a narrower radial Coulomb benchmark without gauge dynamics.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-03e1b6b1c0c4",
      "r-021dc11952bb",
      "r-441b2e8db915"
     ],
     "built": "0.2.0 (21 September; revision 1.77): a foundation contract separating mathematics, computation, measurement, hypothesis and theology, and a frozen radial Coulomb benchmark with an exact half-line spectrum.",
     "found": "The spectrum matches within 4.7e-14 Hartree; exact tick evolution cannot reveal whether time is discrete. Two manuscript claims (minimum memory, Markov closure) were corrected.",
     "ledTo": "The l = 1 sector with a dipole operator.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-a7a6cee5a51d",
      "r-8a175a69be60",
      "r-1c5e7fdacf87"
     ],
     "built": "0.3.0 (revision 1.78): an exact 1S→2P electric-dipole derivation and a refinement protocol frozen before the run, with sources and provenance.",
     "found": "All gates passed first time, with second-order convergence observed toward the exact oscillator strength (not a general proof); this is imported quantum mechanics, not a derivation from strings.",
     "ledTo": "A requirement for a project-specific interaction giving a numerical contrast with standard physics.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-0a81254b1bd1",
      "r-44b733bfc8d2",
      "r-f76a02c88aec",
      "r-9652d273d004"
     ],
     "built": "0.7 (revision 1.82): labelled 3D slices, axis projections and a scalar generator tested exactly; an earlier standalone 24-shape atlas (prepared 5 September) multiplies planar regions into 4D.",
     "found": "Labelled slices rebuild a 4D set exactly, but two different sets share all four axis projections; a 3D shadow hides a collapsed direction. A scalar-curve claim was corrected.",
     "ledTo": "Comparing frozen bridge models, internal state against an extra coordinate, on calibrated outcomes.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-f2f7bd9d9599"
     ],
     "built": "Releases 0.4–0.22: acoustic support, an exceptional-mathematics audit, a wave formulation, U(1) gauge modules, coupled ring and plaquettes, dispersion and optical-tail countermodels, and paired-reference calibration.",
     "found": "Each is a bounded benchmark or exact countermodel; corrections in 0.5, 0.6 and 0.12 and the failed 0.14 run are kept. No real measured dataset yet meets the gate.",
     "ledTo": "The 0.22 boundary: a sample/reference ratio identifies a material kernel when detector and path kernels are shared; with a path mismatch, an exact countermodel mimics the delay.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-350b255f3242",
      "r-ed0171b0bc6a",
      "r-c300050706ec"
     ],
     "built": "An optics line: exact matrix reconstruction from Fourier rotor pairs (19 September), a spectral studio whose validation still checks that reconstruction (27 September), and a Yee-grid Maxwell mode.",
     "found": "Rotor count is a basis-dependent measure, not universal complexity or proof of randomness; the studio cannot make UV literally visible; the diffraction checks establish neither convergence nor experimental agreement.",
     "ledTo": "Open convergence and measured-comparison questions for the optics line.",
     "verified": true,
     "checkedBy": "path skeptic"
    }
   ],
   "current": "Fixed Grid String Lab 0.22.0 is the latest indexed release; edition 02 reports a new 0.25.0 reconstruction after the 0.24 archive was damaged. Every physical promotion gate remains blocked.",
   "nextQuestion": "Can a project-specific interaction make a frozen, precision-complete prediction that differs from standard physics and survives unused measured data?",
   "basis": "editorial"
  },
  {
   "id": "clocks",
   "title": "Eight clocks and a measurement contract",
   "question": "When a richer hidden state is projected into what an instrument records, what can be identified, and what would make an eight-phase or extra-dimension idea testable?",
   "why": "Unless some observable separates a hidden-clock or extra-dimension reading from ordinary physics, it cannot be tested; the October work asks where computation can decide and where only measurement can.",
   "clusters": [
    "october-edition"
   ],
   "steps": [
    {
     "records": [
      "r-1b7da66e7aee",
      "r-288afeeb8dda",
      "r-a1de2c115537"
     ],
     "built": "OCTAVE (30 September–1 October): a 53,200-parameter eight-observer recurrent prototype tested against a dense baseline; alongside, the Grounded Wave Semantic Network, a conditional theorem with a capacity bound.",
     "found": "Level 2 training raised held-out Level 1 bit accuracy by a mean of 1.66 points, but exact gains rested on one seed, and new checkpoints scored 0/8 on basic pulses.",
     "ledTo": "The school report asks for matched observer-count ablations; edition 02 (ENG-044) still requires equal-budget, multi-seed, training-inclusive comparisons.",
     "verified": true,
     "checkedBy": "path skeptic"
    },
    {
     "records": [
      "r-985850180fe4",
      "r-f2105c69edc2"
     ],
     "built": "A finite observer and nested-clock lab (5 October), and an undated exploratory 3D Maxwell calculation of light on a fused-silica yin–yang (taijitu) array from 5–6 October.",
     "found": "Cosine readout hides rotation direction, and a declared dephasing channel changes interference while the observed subsystem's mean energy stays fixed (the apparatus energy ledger is not modelled). The diffraction is ordinary Maxwell physics; the solver missed the exact slab answer by 0.565 percentage points.",
     "ledTo": "A hidden-clock idea needs a written law change, and a more accurate solver, before diffraction can test it.",
     "verified": false,
     "checkedBy": "path skeptic (corrected an overstatement)",
     "sourcesOnRequest": true
    },
    {
     "records": [
      "r-e2a666a8bde5"
     ],
     "built": "A computation route with six gates and an analytic clock-rate pilot (6 October).",
     "found": "An exact theorem: a static clock factor is ordinary Maxwell with rescaled ε and μ. Oblique angles reject only the thickness-only rival, not the unrestricted one.",
     "ledTo": "A concrete eight-oscillator candidate law with a written energy identity, set up to be run.",
     "verified": false,
     "sourcesOnRequest": true
    },
    {
     "records": [
      "r-b3cababe16e2"
     ],
     "built": "The coupled eight-clock Maxwell execution (6 October): energy audit, 726 slab cases, synthetic recovery with nuisances and a mode-visibility audit.",
     "found": "All 11 numerical gates pass and recovery flags 32/32 against 0/32, but an ordinary eight-Lorentz material gives the same response, so the dimensional-interpretation gate fails.",
     "ledTo": "An identification limit for the declared model; a later audit had to repair the optimiser budget and the solver errors.",
     "verified": false,
     "sourcesOnRequest": true
    },
    {
     "records": [
      "r-493d03e8ea7d"
     ],
     "built": "An error-correction audit: a fixed incident extractor, Yee-position material sampling, a matched PML, an independent full-vector Fourier solver and optimiser continuation.",
     "found": "18/18 gates pass; the flat-slab error falls from 0.565 percentage points to 1.6e-13 of incident power, and a 0.0999-point solver difference remains. The conventional equivalence stays exact.",
     "ledTo": "The accepted computational state of the optical branch, packaged for handoff.",
     "verified": false,
     "sourcesOnRequest": true
    },
    {
     "records": [
      "r-bc9d62d0c36e",
      "r-d919382c7223",
      "r-d55b40467cda",
      "r-11d74185db9f",
      "r-2fd10abfc4e7",
      "r-e38932881878",
      "r-9db9022811ba"
     ],
     "built": "A handoff package (snapshot 6 October): manuscript 1.97 unchanged, the five executed packages, mathematics, model choices, a 36-entry claim ledger and agent instructions.",
     "found": "The central finding is stated as an identification limit; the ledger marks eight spatial dimensions, a unique hidden dimension and a universal theory as not identified or not established.",
     "ledTo": "A decision to name one distinguishing law or observable that differs from the exact conventional counterpart.",
     "verified": false,
     "sourcesOnRequest": true
    },
    {
     "records": [
      "r-art-aharonov-bohm",
      "r-9e687319e107",
      "r-d849f62b8737",
      "r-22f8f5d89f73",
      "r-art-hubble",
      "r-b4fc44aa4dcc",
      "r-6a3617d9db79",
      "r-674ec0629256",
      "r-0d5e20fd16a6",
      "r-1ee89abe25ea",
      "r-art-identifiability",
      "r-48aa94a36b73",
      "r-b3fa49ed3ab2",
      "r-art-finite-waves",
      "r-49c565ef3e8c",
      "r-d92d78896f83",
      "r-art-questions-and-meaning",
      "r-31f4752788b0",
      "r-85948b377cdd"
     ],
     "built": "Five edition-02 investigations (15 October): Aharonov–Bohm topology and lens, Hubble likelihood and withheld-H₀ tests, ranging and causal pairs, finite-wave Casimir forces, and Scripture-led models.",
     "found": "Negatives are kept: a failed AB gate, non-unique H₀ branches, ordinary-space rivals and a π decoder failing in Chronicles. Finite waves reproduce a standard force without treating 1+2+3+… as −1/12.",
     "ledTo": "A first physical target: a forward Aharonov–Bohm apparatus prediction under independently measured nuisance bounds, scored on newly reserved frames.",
     "verified": true,
     "checkedBy": "path skeptic"
    }
   ],
   "current": "As of research edition 02 (15 October 2026), the optical branch ends at an exact identification limit, and no engine record is admitted for a new measured physical prediction.",
   "nextQuestion": "Can a forward Aharonov–Bohm apparatus prediction, frozen with independently measured calibration and nuisance bounds, survive scoring on newly reserved frames?",
   "basis": "editorial"
  }
 ],
 "projects": [
  {
   "id": "theory",
   "title": "Theory of Reality",
   "area": "Framework",
   "version": "Theory 2.42 / reviewed 15 Oct 2026",
   "status": "Revisable framework · empirical validation open",
   "question": "How can a richer state, its dynamics, and an observer be expressed in one explicit modelling architecture?",
   "build": [
    "A versioned seven-layer projective framework, a 20-sector physical coverage ledger, and the Wave–Observer Formulation.",
    "The central pipeline is state → mode dynamics → interaction → observer → checked prediction.",
    "The manuscript retains derivations, synthetic benchmarks, countermodels, failed trials, and correction history."
   ],
   "results": [
    "15 October update: 57 engine records mapped; recorded native replay passes 1,365 tests in 31 groups. No new measured physical prediction is admitted by the current evidence gate.",
    "Projection closure and hidden-state ambiguity are treated as explicit mathematical questions.",
    "The latest v1.97 reference-calibration result identifies a material-delay kernel only under a shared detector and optical-path assumption.",
    "A 0.8 ns material delay and a sample-only 0.8 ns path delay can give the same observed ratio."
   ],
   "boundary": "Seven typed mathematical layers are not seven measured spatial dimensions. Physical unification, independent calibration and reserved measurements remain open; see the current 2.42 audit.",
   "origin": "The organizing question: distinguish a complete state, the law moving it, and the record an observer can actually retain.",
   "contribution": "The common architecture separates a complete state, its evolution, its interaction, and its observer. Every neighbouring experiment tests a particular part of that architecture.",
   "recordDates": [
    "2026-09-21",
    "2026-09-26"
   ],
   "dateLabel": "4 Sep – 15 Oct 2026",
   "dateKind": "Current manuscript source window",
   "sources": [
    {
     "label": "Current 15 October audit and next test",
     "url": "research/state-of-the-theory.html"
    },
    {
     "label": "Theory_of_Reality.md",
     "url": "archive/1d8715c179d2-Theory_of_Reality.md"
    },
    {
     "label": "Wave_Observer_Formulation.md",
     "url": "archive/cae4bcf2f553-Wave_Observer_Formulation.md"
    },
    {
     "label": "Physical_Coverage_And_Gauge_Derivation.md",
     "url": "archive/88d96126ec54-Physical_Coverage_And_Gauge_Derivation.md"
    }
   ],
   "lab": null,
   "measurement": "v1.97 · 84 revision entries",
   "group": "Foundation",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 0,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Which independently distinguishing measurement can separate a material delay from a sample-only optical-path delay?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [
    "archive/034529e4bc8c-benchmark_v28_all_unknown_full_market_minimized.cnf.txt",
    "archive/1d8715c179d2-Theory_of_Reality.md",
    "archive/2711bdafd755-Higher_Dimension_Wave_Audit.md",
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     "label": "Universal_Cycle_Tomography.md",
     "url": "archive/128270b32cd4-Universal_Cycle_Tomography.md"
    },
    {
     "label": "Rope Tomography Lab 0.14.0 · README (saved 20 Sep)",
     "url": "archive/rope-tomography-lab-rope-tomography-lab-README.md"
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   ],
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   "author": "Anthony Michael Collado",
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    {
     "text": "The next empirical step is a defined physical system with a calibrated actuator and synchronized sensors. Specify the propagation law, admissible attachment responses, noise model, and competing models before fitting. Vary the input deliberately, fit on one set of trials, and predict withheld frequencies or time sequences without refitting. Use physically justified bounds on delay, gain, and local response; retain alternative parameterizations that remain observationally equivalent.",
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     "text": "The original program includes three wave-equation grids, 72 noisy fits and 72 unmodelled-echo fits, with six withheld frequencies per fit. The Markov-sign release crosses on 39/5,000 declared 90%-persistence null histories and detects 4,629/5,000 97%-persistence alternatives. An independent replay reproduces 24,000,000 decisions; the 0.14.0 README records 110 passing tests.",
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     "text": "The next empirical step is a defined physical system with a calibrated actuator and synchronized sensors. Specify the propagation law, admissible attachment responses, noise model, and competing models before fitting. Vary the input deliberately, fit on one set of trials, and predict withheld frequencies or time sequences without refitting. Use physically justified bounds on delay, gain, and local response; retain alternative parameterizations that remain observationally equivalent. Tested on Python 3.12.13, NumPy 2.3.5, and SciPy 1.17.0. Install the pinned environment, then run: On Linux/macOS, use python3 in place of py -3.12. Re-running the experiment overwrites results/. The recorded run used OPENBLAS_NUM_THREADS=1 and OMP_NUM_THREADS=1. Timings and floating-point rounding can vary across machines and numerical libraries.",
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  {
   "id": "hydrogen",
   "title": "Hydrogen Matrix Lab",
   "area": "Matter & chemistry",
   "version": "0.8.0",
   "status": "Quantum reference & hypothesis tests",
   "question": "Can projected rotor geometry reproduce a declared quantum reference, and which harmonics reach an observable?",
   "build": [
    "A 129³ hydrogen 1s probability matrix and a 24 × 49³ time-indexed 1s + 2p_z density sequence.",
    "Independent density/current audits, a reduced-mass/Dirac spectroscopy ladder, golden-ratio controls, and an observable compiler.",
    "Separate touching-4D-rotor geometry is calibrated and tested against unseen quantum phases."
   ],
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    "The proposed rotor fails four of five preregistered gates; a four-component rescue improves held-out Hellinger error by only 0.34% and still fails five of six.",
    "Reduced mass removes 97.77% of the old centroid error. The reduced-mass Dirac comparison leaves a 3.303 ppm residual in the stated ladder.",
    "The exhaustive n ≤ 40 scan checks 303,809 distinct pairs among 780 ideal transitions; exact golden-gap ratios are excluded by the written rationality argument.",
    "The observable compiler carries density into conserved current, dipole, radiation, and operator-filtered harmonics."
   ],
   "boundary": "Quantum references use imported standard assumptions. Probability envelopes are not hard electron shells; a classical expectation dipole does not supply the whole spontaneous-photon channel.",
   "origin": "Hydrogen supplies an explicit reference against which projected rotor hypotheses and observable constructions can fail or improve.",
   "contribution": "Density, current, and spectral observables are compiled from a declared atomic state. Failed rotor gates expose which geometric descriptions do not recover the quantum reference.",
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     "label": "hydrogen-matrix-lab.zip",
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   "author": "Anthony Michael Collado",
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    {
     "text": "- hydrogen_1s_density.npz: coordinates, the full density matrix, and sampled voxel centers. - hydrogen_1s_90pct.obj: static 3D probability envelope; coordinates are in Bohr radii. - summary.json: matrix configuration, moments, probability radii, and epistemic status. - independent_check.json: a separate SciPy quadrature and matrix audit. - hydrogen_1s_preview.png: static preview generated from the saved matrix samples. - hydrogen_1s_2pz_basis.npz: independently testable 1s and signed 2p_z basis matrices. - hydrogen_1s_2pz_4d_density.npz: 24 time-indexed 3D quantum density and interference frames.",
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     "text": "- hydrogen_1s_density.npz: coordinates, the full density matrix, and sampled voxel centers. - hydrogen_1s_90pct.obj: static 3D probability envelope; coordinates are in Bohr radii. - summary.json: matrix configuration, moments, probability radii, and epistemic status. - independent_check.json: a separate SciPy quadrature and matrix audit. - hydrogen_1s_preview.png: static preview generated from the saved matrix samples. - hydrogen_1s_2pz_basis.npz: independently testable 1s and signed 2p_z basis matrices. - hydrogen_1s_2pz_4d_density.npz: 24 time-indexed 3D quantum density and interference frames. A separate implementation imports none of the production compiler modules and passes 12 checks against independently reconstructed constants and saved arrays. The ten new unit tests pass. The full package regression is recorded in outputs/release_0.8_test_log.txt.",
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     "source": "research/measurement.html",
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   "id": "elements",
   "title": "Element Projection & crystal interference",
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   "version": "0.16.0",
   "status": "Reference-backed numerical models",
   "question": "What atom, crystal, and optical geometry can be built from explicit, sourced inputs?",
   "build": [
    "All 118 identities, 92 crystal phase records, 30 sourced optical datasets, and browser observers for atoms, local faces, primitive cells, and finite specimens.",
    "Reciprocal lattices, geometry-only structure factors, powder shells, finite-crystal sums, and explicit homometric ambiguity controls.",
    "Density level sets and wave-defined crossing surfaces, with reference geometry kept separate from display constructions."
   ],
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    "The diffraction release computes 56,656 reciprocal points, 4,766 numerically suppressed points, and 5,962 powder shells.",
    "An independent NIST SRM640g geometry check reproduces eleven tabulated computed angles to within 0.000435607°.",
    "Two different point arrangements have exactly identical intensity for every real q within the equal-scatterer model."
   ],
   "boundary": "These are point-scatterer geometry weights. The NIST angle check concerns tabulated computed values, not eleven independent measured peaks. Growth habits and multielectron densities have separate approximation limits.",
   "origin": "Reference density and geometry lead into the Atom & Crystal Observer. Structure factors connect declared basis sites to diffraction.",
   "contribution": "Atomic references become finite specimens and interference observables. Exact intensity ambiguities test how much structure a particular observer can actually identify.",
   "recordDates": [
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   ],
   "dateLabel": "Saved 21 Sep 2026",
   "dateKind": "Saved source window",
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     "label": "Current 15 October audit and next test",
     "url": "research/measurement.html"
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     "url": "archive/c60f72e23a0b-Atom_Crystal_Observer_Method.md"
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     "label": "/The Theory of Reality/Element Projection Lab/RESULTS_0.15.md",
     "url": "archive/a00a6dab1f40-RESULTS_0.15.md"
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     "label": "element-projection-lab.zip",
     "url": "archive/bb9b23d8100b-element-projection-lab.zip"
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   ],
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   "measurement": "56,656 reciprocal points · 92 phases",
   "group": "Matter & light",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
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   "illustrationLabel": "Explanatory illustration · not a reported measurement",
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     "text": "Seven new unit groups verify all 92 phase-coordinate records, known neighbor polyhedra, oriented hull volumes and Euler topology, compatibility with the previous nearest-site environments, hydrogen normalization/orthogonality, normal-incidence color preservation and graphite's planar-shell boundary.",
     "label": "Executed checks and preserved limitations",
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     "text": "The model is elastic, coherent, kinematic scattering from identical points. It omits element-dependent atomic form factors, thermal displacement, absorption, multiple scattering, texture, background and instrument response. Consequently the displayed weights are geometry-only interference weights, not calibrated detector counts or material-color predictions. A real diffraction measurement can require physics that the point model omits.",
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   "version": "1.5.0",
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   "question": "Which molecular, spectral, and observation coordinates are needed to distinguish physical behaviour?",
   "build": [
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    "Observer-rank, exposure, phase, and generator-gauge controls; hydrogen transitions and isotope-shift holdouts.",
    "A growing claim ledger retains both supported bounded statements and explicit representation collisions."
   ],
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    "The supplied-matrix classifier recovers four generator families in 512/512 randomized cases, with maximum frequency error 1.11e−15.",
    "A two-frequency linear 5D observer cannot reproduce four distinct Balmer features; exposure changes visibility, not frequency support.",
    "The frozen isotope operator predicts −201.996425 Hz on the separate 2S–8S target, moving the central prediction slightly farther from its measurement.",
    "Its holdout contrast is only 0.019484 combined standard deviations; the record preserves unresolved ambiguity."
   ],
   "boundary": "Synthetic higher-dimensional coordinates are mathematical states. The isotope check uses historical published inputs; it supplies neither a new measurement nor confirmation of an extra physical dimension.",
   "origin": "The observer question extends to molecules, spectra, exposure, and examples where different hidden states share an observation.",
   "contribution": "A hidden state can be classified while its physical interpretation remains ambiguous. Observer banks and holdouts distinguish representation success from a new physical measurement.",
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     "label": "Matter Harmony 1.5 · isotope holdout",
     "url": "archive/matter-harmony-lab-1.5.0-matter-harmony-lab-RESULTS_1.5.md"
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   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
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     "text": "An audit that imports neither production isotope module recomputes the Yukawa matrix elements by direct radial quadrature and independently replays the covariance. It reproduces the material prediction.",
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     "sectionId": "source-record",
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   "figures": [
    {
     "url": "archive/ad9a90c30e87-harmony_observer_diagnostic.png",
     "caption": "harmony_observer_diagnostic.png",
     "provenance": "Saved project figure; see original source for its conditions",
     "originalPath": "/The Theory of Reality/Matter Harmony Lab/harmony_observer_diagnostic.png",
     "sha256": "ad9a90c30e8733c12c3e70b20cd96a3e37841200b0e48579325a84916a4b4097"
    }
   ],
   "figure": {
    "url": "archive/ad9a90c30e87-harmony_observer_diagnostic.png",
    "caption": "harmony_observer_diagnostic.png",
    "provenance": "Saved project figure; see original source for its conditions",
    "originalPath": "/The Theory of Reality/Matter Harmony Lab/harmony_observer_diagnostic.png",
    "sha256": "ad9a90c30e8733c12c3e70b20cd96a3e37841200b0e48579325a84916a4b4097"
   }
  },
  {
   "id": "gauge",
   "title": "Fixed Grid String & coupled gauge–matter",
   "area": "Dynamics",
   "version": "0.22.0",
   "status": "Conditional mathematics & numerical audits",
   "question": "Can the field and matter respond to one another while the declared conservation laws remain checkable?",
   "build": [
    "A progression from oscillator and hydrogen foundations to prescribed gauge fields, a self-consistent 1D ring, and a 2D U(1) plaquette model.",
    "Three-grid checks, manufactured forcing, longer unforced trajectories, and smooth-versus-cusp counterexamples.",
    "Dispersion, sampled-continuum, mirror-shadow, optical-tail, and paired-reference identifiability audits."
   ],
   "results": [
    "15 October update: Fixed Grid 0.25.0 is an explicitly new reconstruction that passes 167 tests. The original damaged 0.24 archive has not been restored, and five older files remain lost.",
    "The 2D plaquette release records 142 passing tests and an independent final-state agreement within 1.76e−13.",
    "Removing matter-current feedback breaks Gauss and energy accounting; removing magnetic feedback can break energy while retaining Gauss.",
    "The corrected evolving three-grid example gives finite comparison ratios 3.8156–4.1557 for its short-time smooth case.",
    "The current optical-reference counterexample separates what is measured from what can be assigned to material response."
   ],
   "boundary": "Finite synthetic gauge models and convergence examples retain their scope. They do not establish a fundamental lattice, general continuum convergence, or QED.",
   "origin": "Interaction moves inside the evolution rule. Field and matter feedback are tested through conservation and independent numerical audits.",
   "contribution": "Coupled matter and field dynamics make interaction part of the state evolution. Conservation and feedback controls test the equations instead of relying on the rendered image.",
   "recordDates": [
    "2026-09-26"
   ],
   "dateLabel": "Saved 26 Sep 2026",
   "dateKind": "Saved source window",
   "sources": [
    {
     "label": "Current 15 October audit and next test",
     "url": "research/state-of-the-theory.html"
    },
    {
     "label": "Fixed Grid String Lab 0.22.0 · README (saved 26 Sep)",
     "url": "archive/fixed-grid-string-lab-fixed-grid-string-lab-README.md"
    },
    {
     "label": "fixed-grid-string-lab.zip",
     "url": "archive/f247ee0ef717-fixed-grid-string-lab.zip"
    }
   ],
   "lab": null,
   "measurement": "142 checks · independent numerical audit",
   "group": "Dynamics",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 1,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Which refinement study can establish convergence beyond the currently declared finite synthetic examples?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [
    "archive/021dc11952bb-FOUNDATION_DERIVATION.md",
    "archive/03e1b6b1c0c4-FOUNDATION_CONTRACT.md",
    "archive/0a81254b1bd1-DIMENSIONAL_SLICE_DERIVATION.md",
    "archive/1c5e7fdacf87-RESULTS_0.3.md",
    "archive/24c14a8b651c-Fixed_Grid_String_Claim_Ledger.md",
    "archive/441b2e8db915-RESULTS_0.2.md",
    "archive/44b733bfc8d2-SOURCES_DIMENSIONAL_SLICES.md",
    "archive/5d2c11aea25f-RESULTS_0.1.md",
    "archive/8a175a69be60-SOURCES_DIPOLE.md",
    "archive/a7a6cee5a51d-DIPOLE_DERIVATION.md",
    "archive/f76a02c88aec-RESULTS_0.7.md",
    "archive/fixed-grid-string-lab-fixed-grid-string-lab-README.md"
   ],
   "checks": [
    {
     "text": "Run python reference_calibration.py, python independent_reference_calibration_audit.py, and python -m unittest discover -p 'test_*.py' -q; inspect RESULTS_0.22.md. Under an exactly shared detector and optical-path kernel, the sample/reference Laplace-transform ratio identifies the material kernel. A sample-only path mismatch multiplies into the same ratio, and an exact counterexample replaces the entire 0.8 ns material delay with an observationally identical 0.8 ns excess-path delay. This is conditional mathematics plus finite synthetic checking, not a measured afterglow or evidence of an extra dimension.",
     "label": "Version 0.22.0 — paired-reference calibration boundary",
     "source": "archive/fixed-grid-string-lab-fixed-grid-string-lab-README.md",
     "sectionId": "source-h-1",
     "provenance": "Source excerpt"
    }
   ],
   "journey": {
    "question": {
     "text": "Can the field and matter respond to one another while the declared conservation laws remain checkable?",
     "label": "Research question",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "15 October update: Fixed Grid 0.25.0 is an explicitly new reconstruction that passes 167 tests. The original damaged 0.24 archive has not been restored, and five older files remain lost. The 2D plaquette release records 142 passing tests and an independent final-state agreement within 1.76e−13. Removing matter-current feedback breaks Gauss and energy accounting; removing magnetic feedback can break energy while retaining Gauss. The corrected evolving three-grid example gives finite comparison ratios 3.8156–4.1557 for its short-time smooth case. The current optical-reference counterexample separates what is measured from what can be assigned to material response.",
     "label": "Reported findings",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "Run python reference_calibration.py, python independent_reference_calibration_audit.py, and python -m unittest discover -p 'test_*.py' -q; inspect RESULTS_0.22.md. Under an exactly shared detector and optical-path kernel, the sample/reference Laplace-transform ratio identifies the material kernel. A sample-only path mismatch multiplies into the same ratio, and an exact counterexample replaces the entire 0.8 ns material delay with an observationally identical 0.8 ns excess-path delay. This is conditional mathematics plus finite synthetic checking, not a measured afterglow or evidence of an extra dimension.",
     "label": "Checks and conditions",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Check excerpts from the named original sources"
    },
    "nextQuestion": {
     "text": "Which refinement study can establish convergence beyond the currently declared finite synthetic examples?",
     "label": "The next question",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "gauge",
   "figures": []
  },
  {
   "id": "optics",
   "title": "Spectral renderer & Maxwell solver",
   "area": "Light & rendering",
   "version": "Studio 0.3",
   "status": "Discrete physics demonstration",
   "question": "How does a physical spectral state become an observer response and then a displayed image?",
   "build": [
    "A three-layer spectral engine: physical spectrum, CIE 1931 observer response, and display output.",
    "Direct-light spectral ray tracing, coherent equal-wavelength interference, objects and shadows.",
    "A live 224 × 144 TMz/TEz Yee-grid solver and a separate six-vector-component 72 × 96 × 24 Maxwell run."
   ],
   "results": [
    "The earlier spectral validation records 23/23 tests, 471 CIE samples, and matrix reconstruction below 2e−14 relative error.",
    "The Maxwell build records 27 checks plus slit/polarization browser-engine checks.",
    "At 1,100 2D steps, closed/single/double-slit detector sums are 0 / 0.0465 / 0.1405 in relative units.",
    "The saved 620-step 3D result reaches a nonzero detector with several interference lobes."
   ],
   "boundary": "The absorbing boundary is a lossy sponge, not PML. Discrete-grid checks establish the demonstration; continuous convergence and calibrated experimental agreement are separate targets.",
   "origin": "The sun–water–eye work separates physical spectrum, observer response, and display. The Maxwell lab evolves fields before reading a detector.",
   "contribution": "The visible image is the last map in a field-to-detector pipeline. The spectral renderer and Maxwell grids keep the propagating state and the observer response separate.",
   "recordDates": [
    "2026-09-26",
    "2026-09-27"
   ],
   "dateLabel": "Saved 26–27 Sep 2026",
   "dateKind": "Saved source window",
   "sources": [
    {
     "label": "Current 15 October audit and next test",
     "url": "research/aharonov-bohm.html"
    },
    {
     "label": "MAXWELL_VALIDATION.md",
     "url": "archive/c300050706ec-MAXWELL_VALIDATION.md"
    },
    {
     "label": "SPECTRAL_VALIDATION.md",
     "url": "archive/ed0171b0bc6a-SPECTRAL_VALIDATION.md"
    },
    {
     "label": "Rotor_Spectral_Studio_v0.3.zip",
     "url": "archive/239b698fe6ef-Rotor_Spectral_Studio_v0.3.zip"
    }
   ],
   "lab": "maxwell",
   "measurement": "Six field components · 620 3D steps",
   "group": "Matter & light",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 5,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Which calibrated experimental comparison and grid-refinement study can check the optical model beyond its discrete demonstration?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [
    "archive/c300050706ec-MAXWELL_VALIDATION.md",
    "archive/ed0171b0bc6a-SPECTRAL_VALIDATION.md"
   ],
   "checks": [
    {
     "text": "- python -m unittest discover -s tests -v: 27 checks, including the 3D Courant limit, source-free magnetic divergence, periodic plane-wave temporal recurrence, field past a 3D aperture, and standalone PNG equality. - node tools/check_maxwell.cjs: opaque screen has zero downstream detector energy; a single slit transmits; double-slit total detector intensity exceeds single-slit; the central interference lobe exceeds an adjacent trough; both polarizations are finite and transmit. - node tools/check_optics.cjs: existing ray optics checks still pass. - node --check web/maxwell.js, plus full standalone script syntax check.",
     "label": "Validation",
     "source": "archive/c300050706ec-MAXWELL_VALIDATION.md",
     "sectionId": "source-h-4",
     "provenance": "Source excerpt"
    },
    {
     "text": "The reproducible demonstration in run_spectral_demo.py creates a 250–2500 nm spectrum containing UV, visible, and IR power. Its current fixture contains 39.9833% power inside the CIE table band and 60.0167% outside it. The visible projection is normalized XYZ [1.05608, 1.00000, 0.85441] and display-mapped sRGB [1.00000, 0.80277, 0.74808].",
     "label": "Automated verification",
     "source": "archive/ed0171b0bc6a-SPECTRAL_VALIDATION.md",
     "sectionId": "source-h-8",
     "provenance": "Source excerpt"
    }
   ],
   "journey": {
    "question": {
     "text": "How does a physical spectral state become an observer response and then a displayed image?",
     "label": "Research question",
     "source": "research/aharonov-bohm.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The earlier spectral validation records 23/23 tests, 471 CIE samples, and matrix reconstruction below 2e−14 relative error. The Maxwell build records 27 checks plus slit/polarization browser-engine checks. At 1,100 2D steps, closed/single/double-slit detector sums are 0 / 0.0465 / 0.1405 in relative units. The saved 620-step 3D result reaches a nonzero detector with several interference lobes.",
     "label": "Reported findings",
     "source": "research/aharonov-bohm.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "- python -m unittest discover -s tests -v: 27 checks, including the 3D Courant limit, source-free magnetic divergence, periodic plane-wave temporal recurrence, field past a 3D aperture, and standalone PNG equality. - node tools/check_maxwell.cjs: opaque screen has zero downstream detector energy; a single slit transmits; double-slit total detector intensity exceeds single-slit; the central interference lobe exceeds an adjacent trough; both polarizations are finite and transmit. - node tools/check_optics.cjs: existing ray optics checks still pass. - node --check web/maxwell.js, plus full standalone script syntax check. The reproducible demonstration in run_spectral_demo.py creates a 250–2500 nm spectrum containing UV, visible, and IR power. Its current fixture contains 39.9833% power inside the CIE table band and 60.0167% outside it. The visible projection is normalized XYZ [1.05608, 1.00000, 0.85441] and display-mapped sRGB [1.00000, 0.80277, 0.74808].",
     "label": "Checks and conditions",
     "source": "research/aharonov-bohm.html",
     "sectionId": "source-record",
     "provenance": "Check excerpts from the named original sources"
    },
    "nextQuestion": {
     "text": "Which calibrated experimental comparison and grid-refinement study can check the optical model beyond its discrete demonstration?",
     "label": "The next question",
     "source": "research/aharonov-bohm.html",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "optics",
   "figures": [
    {
     "url": "archive/51e79cefb5c4-maxwell3d_diffraction.png",
     "caption": "maxwell3d_diffraction.png",
     "provenance": "Saved project figure; see original source for its conditions",
     "originalPath": "/maxwell3d_diffraction.png",
     "sha256": "51e79cefb5c4ea8686bea37b5118dee142e231f658fa16f62d6a7f57f0999ca3"
    }
   ],
   "figure": {
    "url": "archive/51e79cefb5c4-maxwell3d_diffraction.png",
    "caption": "maxwell3d_diffraction.png",
    "provenance": "Saved project figure; see original source for its conditions",
    "originalPath": "/maxwell3d_diffraction.png",
    "sha256": "51e79cefb5c4ea8686bea37b5118dee142e231f658fa16f62d6a7f57f0999ca3"
   }
  },
  {
   "id": "filaments",
   "title": "String & Hair mechanics",
   "area": "Dynamics",
   "version": "3D lab + RRLS v27",
   "status": "Interactive mechanical model",
   "question": "How do delayed excitation, stretch, twist, contact, and end forces shape attached strands?",
   "build": [
    "An orbitable 3D strand lab with linked fixed-rest-length segments, travelling anchor waves, paired motors, damping, bending, and contact.",
    "Endpoint reach/rest-length readouts, paths, neighbouring histories, and contact displays.",
    "The RRLS dimensional work also formalizes modular recurrence, event skipping, curvature/torsion, and analytic captured-strand mechanics."
   ],
   "results": [
    "The exact integer collision solver is compared with tick enumeration on 1,080 cases; rational and signed-start variants each record 500 cases.",
    "A collision schedule can be computed by gcd reduction and generalized CRT without generating intermediate ticks.",
    "The later source audit corrects period scaling, a stale capture time, an overdamped branch, and a cancellation-prone formula."
   ],
   "boundary": "The browser model is discrete and uses arbitrary units. Contact penalties and open-ended braids are not a proof of continuously enforced no-crossing or permanent knots.",
   "origin": "The rope-and-hair idea becomes boundary-driven motion, finite propagation speed, delayed response, and sampled contact.",
   "contribution": "A boundary excitation, propagation speed, and collision history give the programme a concrete forward model for time, phase, and delayed response.",
   "recordDates": [
    "2026-09-06",
    "2026-09-27"
   ],
   "dateLabel": "Saved 6–27 Sep 2026",
   "dateKind": "Saved source window",
   "sources": [
    {
     "label": "Current 15 October audit and next test",
     "url": "research/aharonov-bohm.html"
    },
    {
     "label": "RRLS_v27_DIMENSIONAL_FUTURE_REPORT.md",
     "url": "archive/4d0f85755df4-RRLS_v27_DIMENSIONAL_FUTURE_REPORT.md"
    },
    {
     "label": "RRLS_v27_SOURCE_AUDIT.md",
     "url": "archive/8cae97ff1389-RRLS_v27_SOURCE_AUDIT.md"
    },
    {
     "label": "string-hair-3d-lab.html",
     "url": "archive/92fee4c0df6c-string-hair-3d-lab.html"
    }
   ],
   "lab": "string",
   "measurement": "Travelling waves · collision schedules",
   "group": "Dynamics",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 3,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Which invariant and refinement checks can establish no-crossing behavior beyond the current penalty-based discrete model?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [
    "archive/4d0f85755df4-RRLS_v27_DIMENSIONAL_FUTURE_REPORT.md",
    "archive/8cae97ff1389-RRLS_v27_SOURCE_AUDIT.md"
   ],
   "checks": [
    {
     "text": "6 September 2026 · Theory of Reality revision 1.15",
     "label": "RRLS v0.27 source audit and v0.27.1 repair",
     "source": "archive/8cae97ff1389-RRLS_v27_SOURCE_AUDIT.md",
     "sectionId": "source-h-1",
     "provenance": "Source excerpt"
    }
   ],
   "journey": {
    "question": {
     "text": "How do delayed excitation, stretch, twist, contact, and end forces shape attached strands?",
     "label": "Research question",
     "source": "research/aharonov-bohm.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The exact integer collision solver is compared with tick enumeration on 1,080 cases; rational and signed-start variants each record 500 cases. A collision schedule can be computed by gcd reduction and generalized CRT without generating intermediate ticks. The later source audit corrects period scaling, a stale capture time, an overdamped branch, and a cancellation-prone formula.",
     "label": "Reported findings",
     "source": "research/aharonov-bohm.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "6 September 2026 · Theory of Reality revision 1.15",
     "label": "Checks and conditions",
     "source": "research/aharonov-bohm.html",
     "sectionId": "source-record",
     "provenance": "Check excerpts from the named original sources"
    },
    "nextQuestion": {
     "text": "Which invariant and refinement checks can establish no-crossing behavior beyond the current penalty-based discrete model?",
     "label": "The next question",
     "source": "research/aharonov-bohm.html",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "filaments",
   "figures": []
  },
  {
   "id": "fluids",
   "title": "Water, dye, light & fields",
   "area": "Light & rendering",
   "version": "3D + time lab",
   "status": "Interactive transport model",
   "question": "Which visible structures come from fluid motion, diffusion, and prescribed electromagnetic forces?",
   "build": [
    "A 20³ staggered 3D incompressible grid and an 80 × 120 2D section with pressure projection.",
    "Conservative slope-limited dye transport, viscosity, Boussinesq density force, quasi-static J×B, and a diamagnetic gradient force.",
    "A 3D observer, field readouts, spacetime history, and impact-scale Reynolds/Weber/Ohnesorge/Schmidt calculations."
   ],
   "results": [
    "The model retains D = 4.0e−10 m²/s as a Rhodamine 6G diffusion proxy.",
    "At its displayed scale, molecular diffusion alone travels about 0.09 mm in ten seconds; visible curling mainly comes from moving water.",
    "Field/history panels make the (ct,x,y,z) event and six independent field-tensor components explicit."
   ],
   "boundary": "The free surface is flat; impact retention and the initial ring are uncalibrated closures. It does not solve induced magnetic fields, molecular H₂O, or unresolved turbulence.",
   "origin": "Water separates the medium, a transported signal, and its visible image. The dye grid makes conservation inspectable.",
   "contribution": "The dye lab separates the motion of the medium, transport of a signal, and the fields acting on it. That separation matters when an observer sees only the final pattern.",
   "recordDates": [
    "2026-09-27"
   ],
   "dateLabel": "Saved 27 Sep 2026",
   "dateKind": "Saved source window",
   "sources": [
    {
     "label": "Current 15 October audit and next test",
     "url": "research/state-of-the-theory.html"
    },
    {
     "label": "water-dye-light-lab.html",
     "url": "archive/aa952be50c08-water-dye-light-lab.html"
    }
   ],
   "lab": "water",
   "measurement": "20³ flow grid · conservative transport",
   "group": "Dynamics",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 3,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Which measured closure and refinement checks can replace the currently uncalibrated impact and free-surface assumptions?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [],
   "checks": [],
   "journey": {
    "question": {
     "text": "Which visible structures come from fluid motion, diffusion, and prescribed electromagnetic forces?",
     "label": "Research question",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The model retains D = 4.0e−10 m²/s as a Rhodamine 6G diffusion proxy. At its displayed scale, molecular diffusion alone travels about 0.09 mm in ten seconds; visible curling mainly comes from moving water. Field/history panels make the (ct,x,y,z) event and six independent field-tensor components explicit.",
     "label": "Reported findings",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "The linked sources retain the methods and original record. This editorial brief does not add an independent validation.",
     "label": "Checks and conditions",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Editorial reading guide"
    },
    "nextQuestion": {
     "text": "Which measured closure and refinement checks can replace the currently uncalibrated impact and free-surface assumptions?",
     "label": "The next question",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "fluids",
   "figures": [
    {
     "url": "archive/65d5d23255d9-sun_water_eye_snapshot.png",
     "caption": "sun_water_eye_snapshot.png",
     "provenance": "Saved project figure; see original source for its conditions",
     "originalPath": "/The Theory of Reality/Matter Harmony Lab/sun_water_eye_snapshot.png",
     "sha256": "65d5d23255d962d841cefee584bdbaea26edf2aba2caadb26972e18b76cb6396"
    }
   ],
   "figure": {
    "url": "archive/65d5d23255d9-sun_water_eye_snapshot.png",
    "caption": "sun_water_eye_snapshot.png",
    "provenance": "Saved project figure; see original source for its conditions",
    "originalPath": "/The Theory of Reality/Matter Harmony Lab/sun_water_eye_snapshot.png",
    "sha256": "65d5d23255d962d841cefee584bdbaea26edf2aba2caadb26972e18b76cb6396"
   }
  },
  {
   "id": "chess",
   "title": "Dimensional Chess: C1 through C8",
   "area": "Computation",
   "version": "C1–C8 + R1",
   "status": "Exact finite & bounded proofs",
   "question": "Which symmetries and future-preserving abstractions actually reduce the cost of a proof?",
   "build": [
    "An exact KRK graph solver, symmetry quotient, retrograde fixed point, independent certificate checker, and deliberate semantic-tamper test.",
    "Full-rule state lifting, horizon-safe projection, tension and exchange-dependency fields, and movement-frequency move ordering.",
    "Initial-position bounded forced-mate predicates with independent lexical checks."
   ],
   "results": [
    "C1 solves all 399,112 legal states in its declared KRK universe, reducing them to 50,015 symmetry classes; the maximum forced mate is 32 plies.",
    "All 400,120 symmetry-transition comparisons and the independent Bellman/policy audit pass.",
    "C8 reduces the nine-ply White proof from 575.877 to 375.703 seconds (34.76%); including its 31.087-second training cost, the reduction is 29.36%.",
    "Both C7 and C8 return the same no-forced-mate-within-nine-plies predicate."
   ],
   "boundary": "The KRK result solves its explicitly defined universe without FIDE history clocks. The initial full-chess game value is not solved; C8 changes ordering, not the game theorem.",
   "origin": "The relation-and-representation programme gains a finite ground truth: solved endgame states and bounded certificates, alongside tests that resist full-chess shortcuts.",
   "contribution": "A closed game universe supplies an exact reference. Later ordering improvements can be measured against the same bounded proof predicate, so speed and theorem remain distinct.",
   "recordDates": [
    "2026-09-15"
   ],
   "dateLabel": "Saved 15 Sep 2026",
   "dateKind": "Saved source window",
   "sources": [
    {
     "label": "Current 15 October audit and next test",
     "url": "research/state-of-the-theory.html"
    },
    {
     "label": "Dimensional_Chess_Experiment.md",
     "url": "archive/6875140b9128-Dimensional_Chess_Experiment.md"
    },
    {
     "label": "Dimensional_Chess_Movement_Frequency_C8.md",
     "url": "archive/709ba3d90a0c-Dimensional_Chess_Movement_Frequency_C8.md"
    },
    {
     "label": "Dimensional_Chess_Horizon_Projection_C7.md",
     "url": "archive/bc77a3eb88d2-Dimensional_Chess_Horizon_Projection_C7.md"
    }
   ],
   "lab": null,
   "measurement": "399,112 legal KRK states solved",
   "group": "Inference",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 6,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Which larger rules-complete universe can receive an independently replayable proof while retaining history and draw conditions?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [
    "archive/192640670d05-Dimensional_Chess_Constraint_Wave_C4.md",
    "archive/3fe7cf744ab8-Full_Chess_Dimensional_Lift_C2.md",
    "archive/6875140b9128-Dimensional_Chess_Experiment.md",
    "archive/709ba3d90a0c-Dimensional_Chess_Movement_Frequency_C8.md",
    "archive/88c2103b5c5b-Dimensional_Chess_Tension_Field_C5.md",
    "archive/9b58e8d87cb0-Dimensional_Chess_Exchange_Dependency_C6.md",
    "archive/b7e0db547cd6-Dimensional_Chess_Initial_Position_Run_R1.md",
    "archive/bc77a3eb88d2-Dimensional_Chess_Horizon_Projection_C7.md",
    "archive/d06ca187fd05-Full_Chess_State_Probe_C3.md"
   ],
   "checks": [
    {
     "text": "verify_dimensional_chess.py imports no production function. It independently reconstructs: 1. all 399,112 raw legal positions; 2. all 50,015 symmetry orbits; 3. every legal transition and checkmate/stalemate condition; 4. all 400,120 symmetry-closure comparisons; 5. every win/loss/draw Bellman equation; 6. every shortest-mate and longest-defense distance; 7. every stored optimal policy edge; 8. all 32 concrete moves in the longest principal variation; 9. the certificate and principal-variation digests.",
     "label": "6. Independent proof audit",
     "source": "archive/6875140b9128-Dimensional_Chess_Experiment.md",
     "sectionId": "source-h-8",
     "provenance": "Source excerpt"
    },
    {
     "text": "The C8 result agrees with the separately implemented and independently verified C7 certificate that neither side can force mate within nine plies. A structural audit samples 960 deterministically reachable states and checks seven ordering schemes over 168,882 legal-move instances. Every ordered list is exactly a permutation of the corresponding legal list. Of the state/scheme cases, 6,720 actually change order, establishing that the test is not a lexical no-op. Audit status: PASS.",
     "label": "Audit",
     "source": "archive/709ba3d90a0c-Dimensional_Chess_Movement_Frequency_C8.md",
     "sectionId": "source-h-7",
     "provenance": "Source excerpt"
    },
    {
     "text": "The verifier imports no C7 solver code. It independently reconstructs the candidate prefix, defender draw actions, and AND/OR recurrence using the audited legal-state engine. It reproduces every reported result and all node, edge, cache, horizon, and terminal counts at depths seven and nine.",
     "label": "Independent verification",
     "source": "archive/bc77a3eb88d2-Dimensional_Chess_Horizon_Projection_C7.md",
     "sectionId": "source-h-8",
     "provenance": "Source excerpt"
    }
   ],
   "journey": {
    "question": {
     "text": "Which symmetries and future-preserving abstractions actually reduce the cost of a proof?",
     "label": "Research question",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "C1 solves all 399,112 legal states in its declared KRK universe, reducing them to 50,015 symmetry classes; the maximum forced mate is 32 plies. All 400,120 symmetry-transition comparisons and the independent Bellman/policy audit pass. C8 reduces the nine-ply White proof from 575.877 to 375.703 seconds (34.76%); including its 31.087-second training cost, the reduction is 29.36%. Both C7 and C8 return the same no-forced-mate-within-nine-plies predicate.",
     "label": "Reported findings",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "verify_dimensional_chess.py imports no production function. It independently reconstructs: 1. all 399,112 raw legal positions; 2. all 50,015 symmetry orbits; 3. every legal transition and checkmate/stalemate condition; 4. all 400,120 symmetry-closure comparisons; 5. every win/loss/draw Bellman equation; 6. every shortest-mate and longest-defense distance; 7. every stored optimal policy edge; 8. all 32 concrete moves in the longest principal variation; 9. the certificate and principal-variation digests. The C8 result agrees with the separately implemented and independently verified C7 certificate that neither side can force mate within nine plies. A structural audit samples 960 deterministically reachable states and checks seven ordering schemes over 168,882 legal-move instances. Every ordered list is exactly a permutation of the corresponding legal list. Of the state/scheme cases, 6,720 actually change order, establishing that the test is not a lexical no-op. Audit status: PASS. The verifier imports no C7 solver code. It independently reconstructs the candidate prefix, defender draw actions, and AND/OR recurrence using the audited legal-state engine. It reproduces every reported result and all node, edge, cache, horizon, and terminal counts at depths seven and nine.",
     "label": "Checks and conditions",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Check excerpts from the named original sources"
    },
    "nextQuestion": {
     "text": "Which larger rules-complete universe can receive an independently replayable proof while retaining history and draw conditions?",
     "label": "The next question",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "chess",
   "figures": []
  },
  {
   "id": "shapes",
   "title": "Geometric products & inverse operators",
   "area": "Geometry",
   "version": "24-shape atlas",
   "status": "Finite geometry & exact checks",
   "question": "What happens when planar regions are multiplied, transformed, projected, and inverted?",
   "build": [
    "A declared Cartesian-product operation on 24 planar shapes, with a projected 4D boundary viewer.",
    "576 ordered products, 300 unordered pairs, a full pair-analysis table, and convex-product volume checks.",
    "Separate matrix rotor, spectral consistency, parallel-line, and shift/inverse audits retain what each transformation preserves."
   ],
   "results": [
    "The atlas checks 256 convex polygon pairs; maximum relative 4D volume error is 1.5543e−15.",
    "A 2D×2D Cartesian product has four independent coordinates; the 3D display is its chosen projection.",
    "The spectral matrix engine reconstructs the full benchmark matrices below 2e−14 relative error."
   ],
   "boundary": "“Multiplication of shapes” depends on the stated operation. Cartesian products, Minkowski sums, sweeps, and pointwise multiplication cannot be interchanged.",
   "origin": "The coordinate question becomes explicit geometry. Two planar regions form a 4D Cartesian product; the displayed object is a chosen projection.",
   "contribution": "A projected image depends on its coordinate map. The product atlas makes that distinction explicit before the same question is asked of atoms or hidden model states.",
   "recordDates": [
    "2026-09-05",
    "2026-09-26"
   ],
   "dateLabel": "Saved 5–26 Sep 2026",
   "dateKind": "Saved source window",
   "sources": [
    {
     "label": "Shape Products Atlas · README",
     "url": "archive/shape-products-atlas-shape-products-README.md"
    },
    {
     "label": "shape-products-atlas.zip",
     "url": "archive/e759ab681f2a-shape-products-atlas.zip"
    },
    {
     "label": "SPECTRAL_VALIDATION.md",
     "url": "archive/ed0171b0bc6a-SPECTRAL_VALIDATION.md"
    }
   ],
   "lab": "shapes",
   "measurement": "24 shapes · 576 ordered products",
   "group": "Foundation",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 2,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Which inverse reconstruction remains identifiable once the product operation and observation map are fixed?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [
    "archive/ed0171b0bc6a-SPECTRAL_VALIDATION.md",
    "archive/shape-products-atlas-shape-products-README.md"
   ],
   "checks": [
    {
     "text": "The reproducible demonstration in run_spectral_demo.py creates a 250–2500 nm spectrum containing UV, visible, and IR power. Its current fixture contains 39.9833% power inside the CIE table band and 60.0167% outside it. The visible projection is normalized XYZ [1.05608, 1.00000, 0.85441] and display-mapped sRGB [1.00000, 0.80277, 0.74808].",
     "label": "Automated verification",
     "source": "archive/ed0171b0bc6a-SPECTRAL_VALIDATION.md",
     "sectionId": "source-h-8",
     "provenance": "Source excerpt"
    }
   ],
   "journey": {
    "question": {
     "text": "What happens when planar regions are multiplied, transformed, projected, and inverted?",
     "label": "Research question",
     "source": "archive/shape-products-atlas-shape-products-README.md",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The atlas checks 256 convex polygon pairs; maximum relative 4D volume error is 1.5543e−15. A 2D×2D Cartesian product has four independent coordinates; the 3D display is its chosen projection. The spectral matrix engine reconstructs the full benchmark matrices below 2e−14 relative error.",
     "label": "Reported findings",
     "source": "archive/shape-products-atlas-shape-products-README.md",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "The reproducible demonstration in run_spectral_demo.py creates a 250–2500 nm spectrum containing UV, visible, and IR power. Its current fixture contains 39.9833% power inside the CIE table band and 60.0167% outside it. The visible projection is normalized XYZ [1.05608, 1.00000, 0.85441] and display-mapped sRGB [1.00000, 0.80277, 0.74808].",
     "label": "Checks and conditions",
     "source": "archive/shape-products-atlas-shape-products-README.md",
     "sectionId": "source-record",
     "provenance": "Check excerpts from the named original sources"
    },
    "nextQuestion": {
     "text": "Which inverse reconstruction remains identifiable once the product operation and observation map are fixed?",
     "label": "The next question",
     "source": "archive/shape-products-atlas-shape-products-README.md",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "shapes",
   "figures": []
  },
  {
   "id": "prng-markets",
   "title": "PRNG tomography & market interpreters",
   "area": "AI & inference",
   "version": "PRNG v4 · market v5–16",
   "status": "Generator tests & historical holdouts",
   "question": "Which apparent randomness is recoverable inside a declared model family, and which predictions transfer to unseen data?",
   "build": [
    "Finite-field affine/quadratic recurrence inference, LFSR/linear-complexity recovery, and prefix-to-untouched-suffix tests.",
    "Market-state, path, residual, multiscale, amplitude-first, and confidence-subspace interpreters.",
    "The v16 market check freezes v15 settings across six non-overlapping 1,000-hour forward blocks with prior-only training."
   ],
   "results": [
    "The v15 candle-range model records a 29.884% relative MAE gain against its stated baseline; amplitude conditioning leaves direction accuracy unchanged.",
    "v16 scores 6,000 historical test hours at 52.367% aggregate direction accuracy, with a reported moving-block 95% interval of 51.0–53.533%.",
    "The highest-confidence subsets do not transfer reliably: q90 and q95 exceed 50% in only two of six blocks."
   ],
   "boundary": "PRNG recovery is conditional on a restricted generator class. Historical prediction scores do not establish a live trading edge or unrestricted prediction of random sources.",
   "origin": "Prediction is confronted with untouched generator sequences and historical holdouts. The connection to RRLS is testing a learned relation beyond its fit.",
   "contribution": "Generator recovery and market prediction test what a learned relation retains outside its fitting data. Restricted classes and held-out blocks define the reach of the claim.",
   "recordDates": [],
   "dateLabel": "Undated release",
   "dateKind": "Undated saved release",
   "sources": [
    {
     "label": "PRNG Tomography v4 · theory",
     "url": "archive/dimensional_prng_tomography_v4-THEORY.md"
    },
    {
     "label": "Amplitude-first v15 · results",
     "url": "archive/amplitude_first_market_interpreter_v15-results.json"
    },
    {
     "label": "Predictability v16 · results",
     "url": "archive/predictability_subspace_interpreter_v16-results.json"
    }
   ],
   "lab": null,
   "measurement": "6,000 historical holdout hours",
   "group": "Inference",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 7,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Which frozen, out-of-time test retains predictive skill after the generator family, tuning budget and evaluation protocol are fixed?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [
    "archive/0e49c4b376ca-METHOD.md",
    "archive/370642ea780a-THEORY.md",
    "archive/95b0a3b2973e-RRLS_v08_EXPERIMENT_REPORT.md",
    "archive/dimensional_prng_tomography_v4-THEORY.md"
   ],
   "checks": [],
   "journey": {
    "question": {
     "text": "Which apparent randomness is recoverable inside a declared model family, and which predictions transfer to unseen data?",
     "label": "Research question",
     "source": "archive/dimensional_prng_tomography_v4-THEORY.md",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The v15 candle-range model records a 29.884% relative MAE gain against its stated baseline; amplitude conditioning leaves direction accuracy unchanged. v16 scores 6,000 historical test hours at 52.367% aggregate direction accuracy, with a reported moving-block 95% interval of 51.0–53.533%. The highest-confidence subsets do not transfer reliably: q90 and q95 exceed 50% in only two of six blocks.",
     "label": "Reported findings",
     "source": "archive/dimensional_prng_tomography_v4-THEORY.md",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "v16 scores 6,000 historical test hours at 52.367% aggregate direction accuracy, with a reported moving-block 95% interval of 51.0–53.533%.",
     "label": "Checks and conditions",
     "source": "archive/dimensional_prng_tomography_v4-THEORY.md",
     "sectionId": "source-record",
     "provenance": "Reported checks from the existing project research summary"
    },
    "nextQuestion": {
     "text": "Which frozen, out-of-time test retains predictive skill after the generator family, tuning budget and evaluation protocol are fixed?",
     "label": "The next question",
     "source": "archive/dimensional_prng_tomography_v4-THEORY.md",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "prng-markets",
   "figures": []
  },
  {
   "id": "semantic",
   "title": "Grounded Wave Semantic Network & NumPy LLM work",
   "area": "AI & inference",
   "version": "GWSN 0.1 · model work",
   "status": "Proposal + reported model results",
   "question": "Can explicit semantic structure be encoded as waves, transformed under constraints, and rendered into different languages?",
   "build": [
    "A six-module architecture: normalizer, canonicalizer/registry, wave encoder, neural wave core, typed verifier, and language renderer.",
    "A finite Fourier byte codec with exact recoverability and a conditional invariance theorem for certified operators.",
    "A separate NumPy language-model workstream targeting GPT-2 small and Qwen3 32B, with tensor/logit/token equivalence discussed."
   ],
   "results": [
    "The bounded canonical serializer is injectively encoded as Fourier coefficients, with a stated exact inverse.",
    "Identical accepted semantic states and certified identical operations yield identical accepted states under the theorem’s premises.",
    "Anthony’s project discussions report 96/96 GPT-2 token agreement and exact comparisons covering 4,846,488 intermediate elements, alongside claimed bitwise Qwen3 reproduction."
   ],
   "boundary": "GWSN 0.1 reports no implementation, training run, or benchmark. The saved archive does not contain the standalone GPT-2/Qwen implementation or weights; those reproduction results are identified here as reported.",
   "origin": "After equality comes meaning: GWSN proposes canonical semantic states and certified operations. It remains a separate architecture proposal.",
   "contribution": "The architecture proposes a canonical semantic state, certified transformations, and an exact representation. It asks how to carry meaning beyond output equality; implementation remains open.",
   "recordDates": [
    "2026-09-30"
   ],
   "dateLabel": "Saved 30 Sep 2026",
   "dateKind": "Saved source window",
   "sources": [
    {
     "label": "Current 15 October audit and next test",
     "url": "research/state-of-the-theory.html"
    },
    {
     "label": "Grounded Wave Semantic Network · theorem v0.1",
     "url": "archive/grounded-wave-semantic-network-v0.1.md"
    }
   ],
   "lab": null,
   "measurement": "Six-module proposal · finite codec",
   "group": "Learning & meaning",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 1,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Can a complete implementation and held-out benchmark test the proposed semantic-wave architecture and its declared constraints?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [
    "archive/grounded-wave-semantic-network-v0.1.md"
   ],
   "checks": [
    {
     "text": "For a literal physical description, the intended grounding process is to obtain observations or a declared model, construct typed properties, and enforce laws within their validity regime. The network does not derive arbitrary object properties merely by receiving a noun.",
     "label": "Grounding examples and counterexamples",
     "source": "archive/grounded-wave-semantic-network-v0.1.md",
     "sectionId": "source-h-11",
     "provenance": "Source excerpt"
    }
   ],
   "journey": {
    "question": {
     "text": "Can explicit semantic structure be encoded as waves, transformed under constraints, and rendered into different languages?",
     "label": "Research question",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The bounded canonical serializer is injectively encoded as Fourier coefficients, with a stated exact inverse. Identical accepted semantic states and certified identical operations yield identical accepted states under the theorem’s premises. Anthony’s project discussions report 96/96 GPT-2 token agreement and exact comparisons covering 4,846,488 intermediate elements, alongside claimed bitwise Qwen3 reproduction.",
     "label": "Reported findings",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "For a literal physical description, the intended grounding process is to obtain observations or a declared model, construct typed properties, and enforce laws within their validity regime. The network does not derive arbitrary object properties merely by receiving a noun.",
     "label": "Checks and conditions",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Check excerpts from the named original sources"
    },
    "nextQuestion": {
     "text": "Can a complete implementation and held-out benchmark test the proposed semantic-wave architecture and its declared constraints?",
     "label": "The next question",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "semantic",
   "figures": []
  },
  {
   "id": "gpt2",
   "title": "GPT-2: quantisation & the LayerNorm gauge",
   "area": "Published model recovery",
   "version": "Revised 28 Sep 2026",
   "status": "Published preprint",
   "question": "When the same observable output hides different weights, what extra constraint identifies the stored model?",
   "build": [
    "A published NumPy method separates gauge-free maps, LayerNorm-fed maps, and embedding tables.",
    "Internal activation pairs feed least-squares recovery; float32 lattice constraints and the tied readout address distinct gauge obstructions.",
    "The public gauge-break repository contains the method, runnable code, and run records."
   ],
   "results": [
    "The preprint reports all 124,439,808 GPT-2 small parameters recovered bit for bit, with an assembled SHA-256 matching the public checkpoint.",
    "Its eight-column enumeration tests 107,214,677 candidates, finding eight survivors and 6,152/6,152 matching coordinates.",
    "Two runs on x86-64 Windows and ARM64 Linux take different precision paths and recover identical bits.",
    "The shuffled-activation controls report zero bit matches for the stated maps."
   ],
   "boundary": "A published, unreviewed preprint using internal activation instrumentation. Public-checkpoint byte equality leaves the copying objection open; a hidden target or independent reproduction is the next distinguishing test. The lattice uniqueness statistic is conditional on the stated rounding null.",
   "origin": "The hidden-model question is revisited with internal activation access and float32 constraints. This is a different observation contract from an output-only oracle.",
   "contribution": "The published preprint places the observer boundary at LayerNorm: equal outputs hide a continuous family in real arithmetic, while stored precision and additional observations constrain recovery.",
   "recordDates": [],
   "dateLabel": "Revised 28 Sep 2026",
   "dateKind": "Dated project report",
   "sources": [
    {
     "url": "https://www.d0re.com/paper",
     "label": "Published preprint · method, controls & scope"
    },
    {
     "url": "https://github.com/sendmefather/gauge-break",
     "label": "gauge-break · public source"
    },
    {
     "url": "https://github.com/sendmefather/gauge-break/tree/main/records",
     "label": "Published run records"
    }
   ],
   "lab": null,
   "measurement": "124,439,808 parameters · published report",
   "group": "Inference",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 7,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Can a hidden target or independent reproduction distinguish genuine recovery from access to a public checkpoint?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [],
   "checks": [],
   "journey": {
    "question": {
     "text": "When the same observable output hides different weights, what extra constraint identifies the stored model?",
     "label": "Research question",
     "source": "https://www.d0re.com/paper",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The preprint reports all 124,439,808 GPT-2 small parameters recovered bit for bit, with an assembled SHA-256 matching the public checkpoint. Its eight-column enumeration tests 107,214,677 candidates, finding eight survivors and 6,152/6,152 matching coordinates. Two runs on x86-64 Windows and ARM64 Linux take different precision paths and recover identical bits. The shuffled-activation controls report zero bit matches for the stated maps.",
     "label": "Reported findings",
     "source": "https://www.d0re.com/paper",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "The preprint reports all 124,439,808 GPT-2 small parameters recovered bit for bit, with an assembled SHA-256 matching the public checkpoint. Its eight-column enumeration tests 107,214,677 candidates, finding eight survivors and 6,152/6,152 matching coordinates. The shuffled-activation controls report zero bit matches for the stated maps.",
     "label": "Checks and conditions",
     "source": "https://www.d0re.com/paper",
     "sectionId": "source-record",
     "provenance": "Reported checks from the existing project research summary"
    },
    "nextQuestion": {
     "text": "Can a hidden target or independent reproduction distinguish genuine recovery from access to a public checkpoint?",
     "label": "The next question",
     "source": "https://www.d0re.com/paper",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "gpt2",
   "figures": []
  },
  {
   "id": "d0fs",
   "title": "d0fs: versioned agent memory",
   "area": "Engineering",
   "version": "27–28 Sep 2026",
   "status": "Local hooks in daily use",
   "question": "How can an agent resume work with the earlier state, its supporting evidence, and its changes still visible?",
   "build": [
    "Versioned file and task records, an event log, and configured context hooks for coding agents.",
    "An optional 14-tool MCP server: eight memory/version tools, five task tools, and one session-pairing tool.",
    "Related private projects include prism, which grades memory support, and d0hub, which retains overwritten Git versions and requires receipts for history changes."
   ],
   "results": [
    "The public project page records 23/23 matching local/service hook cases in an isolated parity test.",
    "Three quiet-host runs on a copy of the real memory volume cover eight sessions at one tool call per second each: zero errors and zero calls over the two-second budget.",
    "A 17-check path-safety suite refuses the tested symlink and hard-link edits and preserves permissions."
   ],
   "boundary": "Daily local hooks; the shared service remains in test. Some shell writes are observed after they happen. The separate audit ledger is test code without an external witness, and the source and installer remain private. Engineering status retains the dated September source snapshot. This October research edition adds no new operational validation of this product.",
   "origin": "The research habit of keeping the state and its evidence becomes versioned agent memory. This is an engineering application of a shared principle.",
   "contribution": "Versioned memory carries the earlier state and supporting record into the next agent session. Its connection to the theory is the shared principle of preserving observable evidence.",
   "recordDates": [],
   "dateLabel": "27–28 Sep 2026",
   "dateKind": "Dated project report",
   "sources": [
    {
     "url": "https://www.d0re.com/d0fs",
     "label": "d0fs · working model & development tests"
    }
   ],
   "lab": null,
   "measurement": "23/23 hook parity cases",
   "group": "Working systems",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 8,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Can an independent witness verify the memory audit trail across failures and writes made outside the configured hooks?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [],
   "checks": [],
   "journey": {
    "question": {
     "text": "How can an agent resume work with the earlier state, its supporting evidence, and its changes still visible?",
     "label": "Research question",
     "source": "https://www.d0re.com/d0fs",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The public project page records 23/23 matching local/service hook cases in an isolated parity test. Three quiet-host runs on a copy of the real memory volume cover eight sessions at one tool call per second each: zero errors and zero calls over the two-second budget. A 17-check path-safety suite refuses the tested symlink and hard-link edits and preserves permissions.",
     "label": "Reported findings",
     "source": "https://www.d0re.com/d0fs",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "The public project page records 23/23 matching local/service hook cases in an isolated parity test. A 17-check path-safety suite refuses the tested symlink and hard-link edits and preserves permissions.",
     "label": "Checks and conditions",
     "source": "https://www.d0re.com/d0fs",
     "sectionId": "source-record",
     "provenance": "Reported checks from the existing project research summary"
    },
    "nextQuestion": {
     "text": "Can an independent witness verify the memory audit trail across failures and writes made outside the configured hooks?",
     "label": "The next question",
     "source": "https://www.d0re.com/d0fs",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "d0fs",
   "figures": []
  },
  {
   "id": "d0os",
   "title": "d0 OS: a traceable working environment",
   "area": "Engineering",
   "version": "26–27 Sep 2026",
   "status": "Desktop in daily use",
   "question": "How can the machine running the experiments keep its own state and identity inspectable?",
   "build": [
    "An independently developed NixOS/GNOME desktop with the d0 interface, signed boot, and hourly local file snapshots.",
    "Updates can apply without reboot when the kernel is unchanged; kernel changes use a supervised reboot.",
    "The Home edition, Windows file routing, and App Installer are in test. D0 for Windows remains a design."
   ],
   "results": [
    "The public page records enforcing Secure Boot and signed current boot images on Anthony’s laptop from 26 September 2026.",
    "The Home installer boots under UEFI, installs offline, and reaches first-run setup in the stated 27 September VM test.",
    "29 Windows extensions across 23 file types have handlers in the tested routing. Selected Windows applications opened in real-download tests."
   ],
   "boundary": "One daily-use laptop and declared VM tests. Hourly snapshots share the same disk. There is no public release or evidence of general hardware or Windows compatibility. Engineering status retains the dated September source snapshot. This October research edition adds no new operational validation of this product.",
   "origin": "Memory and the Console enter the operating environment. Identity, signed boot, local snapshots, and recovery become working system concerns.",
   "contribution": "An inspectable environment puts identity, state change, and recovery into use on the machine running the work. This is an engineering connection to the programme’s principles.",
   "recordDates": [],
   "dateLabel": "26–27 Sep 2026",
   "dateKind": "Dated project report",
   "sources": [
    {
     "url": "https://www.d0re.com/d0os/2026-09",
     "label": "d0 OS · desktop, editions & compatibility"
    }
   ],
   "lab": null,
   "measurement": "Enforcing signed boot · daily desktop",
   "group": "Working systems",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 9,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Which additional physical hardware and application tests can extend the current laptop and VM compatibility evidence?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [],
   "checks": [],
   "journey": {
    "question": {
     "text": "How can the machine running the experiments keep its own state and identity inspectable?",
     "label": "Research question",
     "source": "https://www.d0re.com/d0os/2026-09",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The public page records enforcing Secure Boot and signed current boot images on Anthony’s laptop from 26 September 2026. The Home installer boots under UEFI, installs offline, and reaches first-run setup in the stated 27 September VM test. 29 Windows extensions across 23 file types have handlers in the tested routing. Selected Windows applications opened in real-download tests.",
     "label": "Reported findings",
     "source": "https://www.d0re.com/d0os/2026-09",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "The Home installer boots under UEFI, installs offline, and reaches first-run setup in the stated 27 September VM test. 29 Windows extensions across 23 file types have handlers in the tested routing. Selected Windows applications opened in real-download tests.",
     "label": "Checks and conditions",
     "source": "https://www.d0re.com/d0os/2026-09",
     "sectionId": "source-record",
     "provenance": "Reported checks from the existing project research summary"
    },
    "nextQuestion": {
     "text": "Which additional physical hardware and application tests can extend the current laptop and VM compatibility evidence?",
     "label": "The next question",
     "source": "https://www.d0re.com/d0os/2026-09",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "d0os",
   "figures": []
  },
  {
   "id": "console",
   "title": "D0 Console: the agent workspace",
   "area": "Engineering",
   "version": "27 Sep 2026",
   "status": "Core in daily use",
   "question": "How can sessions, tasks, and decisions remain connected when an agent’s work is resumed?",
   "build": [
    "A desktop workspace for reopening coding-agent sessions, grouping agents, and managing tasks and decisions.",
    "d0fs supplies the neighbouring memory layer; an optional GitHub connection is working in test."
   ],
   "results": [
    "The 27 September 2026 d0re home page recorded 61 + 28 passing checks in the history and resume suites.",
    "The core Console runs in daily internal use; GitHub integration tests used a local repository and a simulated API."
   ],
   "boundary": "Internal daily use and declared test fixtures. No real GitHub account was connected in those integration tests; this is not a customer release. Engineering status retains the dated September source snapshot. This October research edition adds no new operational validation of this product.",
   "origin": "d0fs supplies a neighbouring memory layer; the Console makes sessions, tasks, and decisions navigable in a daily workspace.",
   "contribution": "Tasks, sessions, and decisions become a navigable record. The workspace gives the evidence-retention question a daily engineering setting beside d0fs.",
   "recordDates": [],
   "dateLabel": "27 Sep 2026",
   "dateKind": "Dated project report",
   "sources": [
    {
     "url": "https://www.d0re.com/d0os/2026-09#console",
     "label": "D0 Console · workspace & test scope"
    }
   ],
   "lab": null,
   "measurement": "61 + 28 history/resume checks",
   "group": "Working systems",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 9,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Can real account integration and interrupted-session tests retain the behavior reported by the current local and simulated fixtures?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [],
   "checks": [],
   "journey": {
    "question": {
     "text": "How can sessions, tasks, and decisions remain connected when an agent’s work is resumed?",
     "label": "Research question",
     "source": "https://www.d0re.com/d0os/2026-09#console",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The 27 September 2026 d0re home page recorded 61 + 28 passing checks in the history and resume suites. The core Console runs in daily internal use; GitHub integration tests used a local repository and a simulated API.",
     "label": "Reported findings",
     "source": "https://www.d0re.com/d0os/2026-09#console",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "The 27 September 2026 d0re home page recorded 61 + 28 passing checks in the history and resume suites. The core Console runs in daily internal use; GitHub integration tests used a local repository and a simulated API.",
     "label": "Checks and conditions",
     "source": "https://www.d0re.com/d0os/2026-09#console",
     "sectionId": "source-record",
     "provenance": "Reported checks from the existing project research summary"
    },
    "nextQuestion": {
     "text": "Can real account integration and interrupted-session tests retain the behavior reported by the current local and simulated fixtures?",
     "label": "The next question",
     "source": "https://www.d0re.com/d0os/2026-09#console",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "console",
   "figures": []
  },
  {
   "id": "remote",
   "title": "D0 Remote Desktop: observer latency",
   "area": "Engineering",
   "version": "27 Sep 2026",
   "status": "In daily use",
   "question": "When state is observed across a connection, how much delay is introduced and whose machine is being observed?",
   "build": [
    "Saved and discovered computers in one client, with TLS and remembered certificate identities.",
    "Changed identities require the server’s authorization. A session password is obtained for one connection and not written to disk."
   ],
   "results": [
    "The published bench records about 51 ms key-press-to-screen latency at 1920 × 1080 on a 6-vCPU server without a GPU.",
    "The same moving-content test reports 47 screen updates per second at 1920 × 1080 and 61 at 1600 × 900 and below; an idle screen sends nothing.",
    "30/30 identity and connection UI checks pass in the stated VM test."
   ],
   "boundary": "A dated development bench under its stated conditions, not a universal network or display latency. The wider server is still alpha. Engineering status retains the dated September source snapshot. This October research edition adds no new operational validation of this product.",
   "origin": "The desktop/server family gains a remote observer. Endpoint identity and key-to-screen delay become measurable engineering questions.",
   "contribution": "Remote access is an engineering observer with a measurable transport delay and a checked endpoint identity. Its bench gives the observer question a practical, declared instrument.",
   "recordDates": [],
   "dateLabel": "27 Sep 2026",
   "dateKind": "Dated project report",
   "sources": [
    {
     "url": "https://www.d0re.com/d0os/2026-09#remote",
     "label": "Remote Desktop · latency, identity & test conditions"
    }
   ],
   "lab": null,
   "measurement": "≈51 ms in the dated 1080p bench",
   "group": "Working systems",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 3,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "How do key-to-screen latency and endpoint identity checks change under broader network, hardware and display conditions?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [],
   "checks": [],
   "journey": {
    "question": {
     "text": "When state is observed across a connection, how much delay is introduced and whose machine is being observed?",
     "label": "Research question",
     "source": "https://www.d0re.com/d0os/2026-09#remote",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The published bench records about 51 ms key-press-to-screen latency at 1920 × 1080 on a 6-vCPU server without a GPU. The same moving-content test reports 47 screen updates per second at 1920 × 1080 and 61 at 1600 × 900 and below; an idle screen sends nothing. 30/30 identity and connection UI checks pass in the stated VM test.",
     "label": "Reported findings",
     "source": "https://www.d0re.com/d0os/2026-09#remote",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "The same moving-content test reports 47 screen updates per second at 1920 × 1080 and 61 at 1600 × 900 and below; an idle screen sends nothing. 30/30 identity and connection UI checks pass in the stated VM test.",
     "label": "Checks and conditions",
     "source": "https://www.d0re.com/d0os/2026-09#remote",
     "sectionId": "source-record",
     "provenance": "Reported checks from the existing project research summary"
    },
    "nextQuestion": {
     "text": "How do key-to-screen latency and endpoint identity checks change under broader network, hardware and display conditions?",
     "label": "The next question",
     "source": "https://www.d0re.com/d0os/2026-09#remote",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "remote",
   "figures": []
  },
  {
   "id": "server",
   "title": "d0 OS Server: operational evidence",
   "area": "Engineering",
   "version": "27 Sep 2026",
   "status": "Alpha on a test server",
   "question": "How can accounts, device state, and service health be observed and acted on with an inspectable record?",
   "build": [
    "D0 Server Manager coordinates accounts, enrolled devices, software inventory, certificates, and health checks.",
    "The health monitor checks the test server each minute, with alert states that can wait, fire, and clear."
   ],
   "results": [
    "The 27 September 2026 d0re home page recorded 46 health-monitor rules, counted from source.",
    "Account sign-in operates on the alpha server; the private certificate authority and monitoring remain in test."
   ],
   "boundary": "One alpha test server. The private CA requires trusting its root and does not issue public web certificates. No production or customer deployment is claimed. Engineering status retains the dated September source snapshot. This October research edition adds no new operational validation of this product.",
   "origin": "The d0 OS family extends into an alpha server: accounts, inventory, certificates, and observed health have explicit operational scope.",
   "contribution": "Inventory, identity, and health readings turn changing machine states into operational evidence. The stated alpha scope fixes which environment those readings describe.",
   "recordDates": [],
   "dateLabel": "27 Sep 2026",
   "dateKind": "Dated project report",
   "sources": [
    {
     "url": "https://www.d0re.com/d0os/2026-09#server",
     "label": "d0 OS Server · accounts, devices & health"
    }
   ],
   "lab": null,
   "measurement": "46 health rules · alpha server",
   "group": "Working systems",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 9,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Which independent operational tests can extend the evidence beyond the present alpha test server?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [],
   "checks": [],
   "journey": {
    "question": {
     "text": "How can accounts, device state, and service health be observed and acted on with an inspectable record?",
     "label": "Research question",
     "source": "https://www.d0re.com/d0os/2026-09#server",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "The 27 September 2026 d0re home page recorded 46 health-monitor rules, counted from source. Account sign-in operates on the alpha server; the private certificate authority and monitoring remain in test.",
     "label": "Reported findings",
     "source": "https://www.d0re.com/d0os/2026-09#server",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "Account sign-in operates on the alpha server; the private certificate authority and monitoring remain in test.",
     "label": "Checks and conditions",
     "source": "https://www.d0re.com/d0os/2026-09#server",
     "sectionId": "source-record",
     "provenance": "Reported checks from the existing project research summary"
    },
    "nextQuestion": {
     "text": "Which independent operational tests can extend the evidence beyond the present alpha test server?",
     "label": "The next question",
     "source": "https://www.d0re.com/d0os/2026-09#server",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "server",
   "figures": []
  },
  {
   "id": "octave",
   "title": "POWM / Octave: eight learning observers",
   "area": "Learning & meaning",
   "version": "Design 30 Sep · benchmark saved 1 Oct 2026",
   "status": "Trained recurrent prototype",
   "question": "Can communicating temporal observers learn prediction while keeping ambiguity and the cost of learning visible?",
   "build": [
    "Eight recurrent observer identities, learned routing, fast/slow state, communication and workspace feedback.",
    "A NumPy training school compares equal data/update budgets with a separately sized dense baseline.",
    "Causal masking, gradient checks, streaming continuity and checkpoint continuation retain the inference contract."
   ],
   "results": [
    "Held-out Level 2 A+B bit accuracy: 92.70% recurrent versus 84.16% dense; complete forecasts: 9.90% versus 4.23%.",
    "Dense performs better on trained-band bit forecasts, and on exact Level 1 forecasts in its Level 1-only branch.",
    "Level 2 changes held-out Level 1 bit accuracy by +1.66 percentage points on average; exact transfer is inconsistent across three seeds.",
    "All six broader-school recurrent final checkpoints score 0/8 exact basic-pulse forecasts; basic-pattern coverage still needs work.",
    "Compute: the recurrent experiment took 800.82 seconds and the dense baseline 2.51 seconds on the same NumPy runtime, including final evaluation; this is not a pure training-throughput comparison."
   ],
   "boundary": "Preliminary fixed-budget NumPy experiment. Data/update budgets are matched, compute and parameter counts are not. Eight-observer superiority, frontier capability, physical-phase alignment and reliable exact transfer remain unestablished.",
   "origin": "The wave/observer programme motivates eight communicating temporal slots, fast and slow state, prediction, and memory. The number eight is an experimental hypothesis; the benchmark tests a small recurrent prototype, not the scaled world-model proposal.",
   "contribution": "Turns an observer architecture into a trainable prototype and a fixed-budget school with held-out periods, masked sensors and complete-forecast scoring.",
   "recordDates": [
    "2026-09-30",
    "2026-10-01"
   ],
   "dateLabel": "30 Sep – 1 Oct 2026",
   "dateKind": "Design date / saved benchmark",
   "sources": [
    {
     "label": "Current 15 October audit and next test",
     "url": "research/state-of-the-theory.html"
    },
    {
     "label": "Octave · full design review",
     "url": "journey/sources/octave-design-review.txt"
    },
    {
     "label": "Octave · school benchmark and limits",
     "url": "journey/sources/octave-school-benchmark.txt"
    }
   ],
   "lab": null,
   "measurement": "53,200 parameters · three training seeds",
   "group": "Learning & meaning",
   "kind": "Editorial research brief",
   "author": "Anthony Michael Collado",
   "illustrationIndex": 10,
   "illustrationLabel": "Explanatory illustration · not a reported measurement",
   "nextQuestion": "Do matched observer-count and compute ablations support eight observers, reliable exact transfer and basic-pattern mastery?",
   "nextQuestionBasis": "Editorial question based on the stated project limits",
   "documents": [
    "archive/c69c23892b03-Harmonic_Alpha_Results.md",
    "journey/sources/octave-design-review.txt",
    "journey/sources/octave-school-benchmark.txt"
   ],
   "checks": [
    {
     "text": "Final exams did not select checkpoints, alter teaching or drive training. Train bands, held-out bands, noise protocol and reproduction commands are documented in README.txt. This is a preliminary fixed-budget experiment, not a mastery or frontier-performance certificate. More updates could change the comparison. Same data/update budget does not mean same compute: architectures, learning rates and gradient clipping differ. Eight-observer superiority requires matched observer-count ablations. Complete L2 forecasts require all 64 A+B bits correct, whereas complete L1 forecasts require 32 A bits. Log loss and Brier scores appear in raw results. No uncertainty calibration is claimed. Historical recurrence/copy reference uses strong integer-lag structure and separately trained weights.",
     "label": "Final exam protocol and interpretation limits",
     "source": "journey/sources/octave-school-benchmark.txt",
     "sectionId": "source-record",
     "provenance": "Source excerpt"
    }
   ],
   "journey": {
    "question": {
     "text": "Can communicating temporal observers learn prediction while keeping ambiguity and the cost of learning visible?",
     "label": "Research question",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "answer": {
     "text": "Held-out Level 2 A+B bit accuracy: 92.70% recurrent versus 84.16% dense; complete forecasts: 9.90% versus 4.23%. Dense performs better on trained-band bit forecasts, and on exact Level 1 forecasts in its Level 1-only branch. Level 2 changes held-out Level 1 bit accuracy by +1.66 percentage points on average; exact transfer is inconsistent across three seeds. All six broader-school recurrent final checkpoints score 0/8 exact basic-pulse forecasts; basic-pattern coverage still needs work. Compute: the recurrent experiment took 800.82 seconds and the dense baseline 2.51 seconds on the same NumPy runtime, including final evaluation; this is not a pure training-throughput comparison.",
     "label": "Reported findings",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Existing project research summary"
    },
    "checks": {
     "text": "Final exams did not select checkpoints, alter teaching or drive training. Train bands, held-out bands, noise protocol and reproduction commands are documented in README.txt. This is a preliminary fixed-budget experiment, not a mastery or frontier-performance certificate. More updates could change the comparison. Same data/update budget does not mean same compute: architectures, learning rates and gradient clipping differ. Eight-observer superiority requires matched observer-count ablations. Complete L2 forecasts require all 64 A+B bits correct, whereas complete L1 forecasts require 32 A bits. Log loss and Brier scores appear in raw results. No uncertainty calibration is claimed. Historical recurrence/copy reference uses strong integer-lag structure and separately trained weights.",
     "label": "Checks and conditions",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Check excerpts from the named original sources"
    },
    "nextQuestion": {
     "text": "Do matched observer-count and compute ablations support eight observers, reliable exact transfer and basic-pattern mastery?",
     "label": "The next question",
     "source": "research/state-of-the-theory.html",
     "sectionId": "source-record",
     "provenance": "Editorial question based on the stated project limits"
    }
   },
   "headings": [],
   "projectId": "octave",
   "figures": []
  }
 ],
 "manuscriptRevisions": [
  {
   "version": "1.97",
   "title": "paired-reference identifiability",
   "text": "Appendix CT proves that a zero-lifetime reference identifies a sample's material-delay kernel by a Laplace-transform ratio only when the reference and sample have the same detector and optical-path kernels. If the sample has an uncalibrated path mismatch, the ratio identifies the convolution of that mismatch with material response. An exact counterexample makes a genuine 0.8 ns material delay observationally identical to a zero-lifetime sample with a 0.8 ns sample-only path delay. Exact rational checks, 200,000-path Monte Carlo controls and four new tests pass. A separately justified 0.05 ns bound on path-mean mismatch would bound the inferred material mean to a 0.10 ns-wide interval; the bound is an assumption, not a measurement made here. No extra dimension or measured afterglow follows.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.96",
   "title": "optical-tail ambiguity",
   "text": "Appendix CS proves an exact all-distance equivalence between a causal exponential material delay and a causal exponential excess-light-path distribution in one calibrated scalar time-resolved optical channel. The frozen 24 synthetic checks, two independent quadratures and a pure-Python audit agree; a calibrated direct-path trace differs. Thus the suggested multi-distance shadow test can check propagation and the presence of a tail but cannot by itself locate its physical cause, even with arbitrarily many noiseless distances. A separately validated intervention that changes only one mechanism is required. No extra spatial coordinate or measured result follows. The unpersisted 1.95 local paper and its symmetric-first-trial failure are retained intact in the lab's historical folder.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.95",
   "title": "orientation and shadow identifiability",
   "text": "Appendix CR gives an exact unlabelled 4D mirror pair with opposite orientation but identical projection under every accessible 3D illumination experiment that factors through the stated projection map. Sixteen frozen synthetic lamp images, an exact rational distance-symmetry audit, and an independently integrated all-direction contact-shadow control pass. The earlier labelled-only symmetric prototype is preserved as a counterexample to a stronger chirality claim. In ideal vacuum a removed blocker changes a screen after ordinary light-travel delay, with no persistent shadow substance. A hypothetical instrument that couples to the fourth spatial coordinate would separate the example; no such physical instrument or extra spatial dimension is established.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.94",
   "title": "local continuum comparator",
   "text": "Appendix CQ freezes a local 2D nonrelativistic charged-field continuum PDE with no discrete spatial scale, alongside the existing nonlinear gauge lattice. At one off-site point, gauge-invariant density and plaquette magnetic field differ at every tested finite N=8/16/32 and the differences shrink approximately fourfold under refinement. Independent analytic and time-integrator audits pass. This supplies a conditional experiment between two declared equations, not a physical preference: neither dimensionless observer has a validated instrument/unit map, and available collider and gamma-ray data observe different physical quantities. The engineered nonlinear interpolation countermodel from revision 1.93 remains possible when the continuum class is unrestricted.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.93",
   "title": "nonlinear sampled-field ambiguity",
   "text": "Appendix CP constructs an exact nonlinear continuous-field representation of the finite coupled lattice dynamics at its designated sample nodes, using trigonometric interpolation and an explicitly nonlocal, grid-dependent evolution rule. The identity is a written mathematical conjugacy, not physical evidence of a continuum or a lattice. Four frozen synthetic runs and an independently assembled force law check the implementation. This corrects any suggestion that merely adding nonlinear sampled observations would identify a physical grid against an unrestricted continuum alternative. An independently restricted, physically motivated comparator and measured held-out predictions remain necessary.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.92",
   "title": "dispersion identifiability",
   "text": "Appendix CO derives one calibration-plus-held-out linear-mode contrast that distinguishes the declared nearest-neighbor lattice dispersion from a restricted local isotropic nondispersive continuum equation, then constructs a continuous spatial-shift operator with exactly the same linear frequencies at all modes. Numerical frequency agreement cannot identify a fundamental spatial grid while that continuous alternative remains allowed. Frozen synthetic controls and independent off-grid audits are recorded in Fixed Grid String Lab 0.17.0; no measured physics or extra dimensions are claimed.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.91",
   "title": "rough-field counterexample",
   "text": "Appendix CN adds a frozen cusp-profile control at the same grids as a smooth control. At t=0.25, the matter self-error ratio drops from 3.6579 to 1.7657 although norm, energy and Gauss checks pass; an independently assembled vectorized replay agrees. Smooth-field near-four ratios must not be generalized to arbitrary rough initial states. This remains synthetic computation, not evidence of a fundamental lattice or higher dimension.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.90",
   "title": "longer unforced gauge–matter check",
   "text": "Appendix CM uses a frozen source-free extension of the existing smooth interacting case to t=1 on three grids. Matter, electric and gauge links show finite self-consistency ratios 3.22–4.18 across the longer check; Gauss, norm and energy drifts remain small, and independent vectorized evolution agrees. This is one numerical example, not a general continuum convergence proof or measured evidence.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.89",
   "title": "forced-solution location correction",
   "text": "Appendix CL adds one exact driven coupled trajectory. The first frozen trial failed its spatial gate because the prescribed current was evaluated at sites rather than link midpoints. After preserving that negative result and freezing a corrected protocol, all five evolving components converge at approximately second order across grids 8/16/32; independent differentiation verifies the driving sources. These artificially driven equations validate a numerical method, not physical extra dimensions or unforced general convergence.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.88",
   "title": "three-grid evolving coupled check",
   "text": "Appendix CK reports a frozen short-time (t=0.03) spatial self-convergence test of interacting matter, electric and magnetic gauge links on grids 6/12/24. Five comparison ratios range 3.8156–4.1557 after staggered-link alignment; independent vectorized RHS and RK4 replay agree. This is finite synthetic evidence consistent with second-order convergence of this example, not a general proof, measured physics or a discovered underlying grid. Revision 1.87 and the historical 1.86 frequency error remain preserved.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.87",
   "title": "interacting consistency and frequency correction",
   "text": "Appendix CJ corrects the 1.86 vacuum dispersion frequency: the actual model has wave speed sqrt(kappa beta), omitted from the prior table, whose values are only for an auxiliary unit-speed mode. The frozen nonzero-current and nonzero-magnetic-field RHS consistency check converges at second order for N=12,24,48, including matter, electric links and gauge links; an independent Fourier eigenspectrum and numerical derivative audit agrees. This verifies the spatial equations at one smooth state, not interacting trajectory convergence or physical evidence. Original version 1.86 and negative results are retained.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.86",
   "title": "magnetic plaquette benchmark",
   "text": "Appendix CI and Fixed Grid String Lab 0.11.0 extend the self-consistent gauge–matter system to a periodic two-dimensional noncompact U(1) lattice with electric links and quadratic magnetic plaquette energy. Three frozen coupled cases preserve the written charge, Gauss, gauge-covariance and Hamiltonian identities numerically: maximum norm drift 2.39e-12, energy drift 1.20e-11, Gauss residual 7.18e-13 and gauge-related trajectory error 1.01e-12. A separate component-loop implementation agrees within 1.76e-13. Removing matter feedback breaks Gauss and energy accounting; removing magnetic feedback breaks energy while leaving the omitted curl force divergence-free, proving that Gauss preservation alone is insufficient. One linear vacuum magnetic mode converges toward its continuum dispersion at second order, with error ratios 3.97384 and 3.99345. All 142 package tests pass. These are written conditional mathematics and finite synthetic computation—not interacting continuum validation, QED, measured evidence, a physical lattice/tick or evidence for extra dimensions. Complete revision 1.85 is preserved.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.85",
   "title": "self-consistent field–matter benchmark",
   "text": "Appendix CH and Fixed Grid String Lab 0.10.0 add a dimensionless one-dimensional periodic Hamiltonian in which a complex matter wave drives canonical electric-link variables and the changing link phase acts back on the matter. The written finite ODE conserves norm and total Hamiltonian energy and preserves a neutral-background Gauss constraint. In three frozen synthetic cases, numerical norm drift is at most 2.91e-12, energy drift 8.77e-12, Gauss residual 9.29e-13 and gauge-related trajectory error 1.95e-12; an independent scalar-loop RK4 implementation agrees within 2.18e-13. Removing field backreaction breaks Gauss preservation and energy conservation, so prescribed-field covariance is not mislabeled self-consistency. All 130 package tests pass. This is conditional mathematics and finite synthetic computation, not full 3D Maxwell theory, QED, spatial continuum validation, measured evidence, a derived fine-structure constant, a fundamental grid/tick or evidence for extra dimensions. Complete revision 1.84 is preserved.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.84",
   "title": "coverage and electromagnetic foundation",
   "text": "Appendix CG and Fixed Grid String Lab 0.9.0 establish a 20-sector physical coverage ledger and a prescribed-field U(1) wave module. A declared nonrelativistic matter action yields a gauge-covariant lattice Hamiltonian, with an explicit scalar-potential term for time-dependent phase changes and a locally conserved probability/charge current. Eight production gates, all 120 package unit tests, 37 independent numerical checks and nine independent failure controls pass. The grid error for one frozen smooth mode decreases by factors 3.9826 and 3.9956 when the spacing is halved. A counterexample preserves gauge covariance while changing the potential and predictions, showing that symmetry does not determine a unique Hamiltonian. Maxwell equations are derived in writing from a separately postulated field action; self-consistent field evolution remains open. These are conditional mathematics and finite synthetic verification, not a derivation of all physics, the fine-structure constant or physical extra dimensions. Complete revision 1.83 and all earlier corrections are preserved.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.83",
   "title": "synthesis and checked wave formulation",
   "text": "Appendix CF and Fixed Grid String Lab 0.8.0 define the Wave–Observer Formulation: finite Fourier representation, specified mode dynamics and interaction, and an explicit measurement map. A written invertible transformation connects positive-stiffness conservative classical oscillators to complex rotating modes; quantum amplitudes and a scoped Markovian density-matrix channel retain their different physical assumptions. Counterexamples show that nonlinear squaring generates omitted harmonics, zero modes can drift, equal initial densities can produce opposite futures when phases differ, and zero coherent dipole does not imply zero emission. Nine production gates, 112 package unit tests and 29 independent numerical audit checks pass. The formulation supplies an executable architecture, not a newly derived universal Hamiltonian, measured spacetime grid, physical fourth/fifth dimension, or new experimental evidence. The complete 1.82 paper and prior engine records are preserved.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.82",
   "title": "addition and correction",
   "text": "Appendix CE and Fixed Grid String Lab 0.7.0 separate exact 4D slice reconstruction from projection. A 137-voxel discrete four-ball reconstructs exactly from five ordered, coordinate-labelled 3D slices. In contrast, the disjoint even- and odd-parity subsets of a 2^4 hypercube have identical line-sum projections along all four coordinate axes, so even four orthogonal shadows do not identify every 4D set. The revision also corrects the unqualified claim that one scalar can only trace a curve: a scalar can enumerate a finite catalog and a continuous Peano curve can be space-filling; the rank/area limitation requires a C1 or locally Lipschitz generator. Nine production gates, all 103 package tests and 61 independent checks pass. These are written mathematics, finite computation and synthetic visualization—not measured evidence for a physical fourth or fifth dimension. Revision 1.81 and all earlier corrections remain in force.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.81",
   "title": "correction and evidence gate",
   "text": "Appendix CD and Fixed Grid String Lab 0.6.0 audit 14 supplied claims about exceptional mathematics. The unqualified claim that every dimension except four has exactly one smooth structure is retracted: the exceptional theorem concerns Euclidean spaces, where R^4 has uncountably many smoothings; oriented smooth homotopy 7-spheres supply 28 classes and refute the broader sentence. The claimed prime-count crossover below 10^316 is also corrected to a published interval near 1.398 x 10^316. Banach–Tarski does not break physical conservation because its pieces are nonmeasurable. The 2022 experiment excludes a specified real-valued standard quantum formalism, while a peer-reviewed 2026 real-variable construction changes the composition rule and reproduces standard finite-dimensional predictions; the broad claim that complex numbers are uniquely necessary in nature is therefore model-class dependent. Zero of 14 catalog entries passes the new physical-dimension promotion gate. All six production gates, all 85 package tests and 21 independent checks pass. This is written mathematics, literature scope correction and finite computation—not new measured evidence or proof of a fourth physical dimension. Revision 1.80 and all earlier corrections remain in force.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.80",
   "title": "correction and addition",
   "text": "Appendix CC and Fixed Grid String Lab 0.5.0 correct the release-0.4 acoustic load from rho_particle V g to the buoyancy-adjusted (rho_particle-rho_air)Vg, preserving the former result as history. The polystyrene threshold changes from 1010.85847797 Pa to 1010.27875288 Pa per array, only 0.05735%. Equal-radius calculations for 12 declared condensed materials show acoustic contrast tightly clustered near 5/6, so threshold is dominated by effective density: 720.396 Pa for lithium, 985.047 Pa for water, 4331.773 Pa for gold and 4686.466 Pa for osmium. A separate density-only screen covers 85 sourced condensed elements but is explicitly approximate. Free gas parcels are not ranked as levitated objects because they mix with air unless bounded; bubbles and membranes require interface and resonance physics. All five new production gates, all 70 package tests and 86 independent scalar checks pass. These are conditional acoustics, sourced property compilation and finite synthetic computation—not measured validation, a universal chemical law, mass reduction, or evidence for a physical grid or extra dimension. Revision 1.79 and all earlier corrections remain in force.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.79",
   "title": "addition",
   "text": "Appendix CB and Fixed Grid String Lab 0.4.0 calculate whether a declared multichannel ultrasonic field can support a small object. In the frozen linear-acoustic, ideal-monopole and Gor'kov small-sphere model, two opposed 8 by 8 arrays at 40 kHz give a stable equilibrium for a 0.549778714 mg sphere. At 3000 Pa peak coherent-focus pressure per array, equilibrium is 86.5744778 micrometres below the pressure node; the computed support threshold is 1010.85847797 Pa. All six production gates, 53 package tests and 24 independently implemented scalar checks pass. The decisive correction is interpretive: the acoustic field supplies an external force equal to mg; it does not change mass or gravity, and the source receives the equal and opposite reaction. No measured pressure map, force curve or hardware validation was used. The calculation is conditional mathematics plus finite synthetic computation, not evidence for a physical grid, a fundamental tick, extra dimensions or a new ontology of matter. Revision 1.78 and all earlier corrections remain unchanged.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.78",
   "title": "addition",
   "text": "Appendix CA and Fixed Grid String Lab 0.3.0 execute the frozen hydrogen 1S→2P electric-dipole baseline. The declared l=0/l=1 radial finite-difference Hamiltonians converge toward the exact infinite-mass nonrelativistic gap, radial matrix element and oscillator strength. At the finest grid the oscillator strength is 0.416548743989 versus 0.416196717980, a 0.08458% relative error; all three tested errors decrease at approximately second order. Exact angular rules allow the z-polarized 1S→2P m=0 transition and reject the declared 1S→2S, 1S→3D and m=1 controls. All 32 unit tests and 58 independent sparse-eigensolver/quadrature checks pass. No parameter was fitted and no measured wavelength was used for validation. The Coulomb Hamiltonian and electric-dipole operator are imported standard quantum assumptions, not derived string dynamics or evidence of extra dimensions. Revision 1.77's corrections and all earlier boundaries remain unchanged.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.77",
   "title": "correction and foundation test",
   "text": "Appendix BZ and Fixed Grid String Lab 0.2.0 correct the minimum-hidden-memory statement in §4.2: exact minimality uses the maximum actual number of future-equivalence classes across all original observation fibers, not a loose upper bound or one chosen fiber. An exact stationary four-cycle also shows why §4.1's one-step conditional need not be an autonomous Markov law. The new foundation contract separates mathematical representation, fixed physical model, measurement likelihood, implementation and evidence. A frozen radial Coulomb finite-difference model has a written exact half-line spectrum; 32 finite-matrix eigenvalues, 23 unit tests and 102 independently implemented audit checks pass. Exact exponential ticks are sampled continuous-time evolution of the same matrix, so this agreement cannot identify a fundamental clock. No measured validation or parameter fitting was performed. The Coulomb interaction and quantum rules are imported, not derived from higher-dimensional strings. Earlier versions, negative results, sources and mathematical corrections remain intact.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.76",
   "title": "addition",
   "text": "Appendix BY and Element Projection Lab 0.15.0 add a coherent crystal diffraction observer for all 92 available phases. An independent implementation verifies 56,656 reciprocal reflections, 5,962 powder shells, 3,993 analytic selection-rule cases and 132 explicit finite-cluster sums. NIST SRM640g silicon reproduces 11 published calculated peak positions within rounding; this checks consistency with a certified lattice parameter rather than supplying 11 new measurements. An exact homometric pair proves that different point arrangements can produce identical intensities for every scattering vector. All 272 unit tests and 48,786 DOM/SVG interaction checks pass. The model uses identical point scatterers; calibrated intensities, electronic color prediction and physical extra dimensions are not established. Earlier reference data, negative results and mathematical corrections remain unchanged.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.75",
   "title": "addition",
   "text": "Appendix BX and Element Projection Lab 0.14.0 expand the element reference table to 118 typed property records, 1,544 populated values, 90 complete selected crystal cells and 30 visible optical-response datasets. Graphite and a separately labeled 300 GPa DFT hydrogen phase are additional options; unmeasured or uningested data remain explicit. Independent raw-CIF audits check all 25 added phase records, including the prediction; independent scalar optics reproduce 7,619 reflectances and 38 colors. All 259 unit tests and 14,105 view checks pass. The original 67 geometries, 11 optical records and previous mathematical/physical corrections remain unchanged. These are external reference inputs and checked computation, not new measurements or geometric predictions of color.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.74",
   "title": "addition",
   "text": "Appendix BW and Element Projection Lab 0.13.0 add a crystal periodic table: all 118 identities, 67 complete sourced primitive cells and 11 measured-input sunlight-color reconstructions. Primitive cells are repeating units, not minimum stable isolated clusters; missing bases and optical constants remain unassigned. Au, Ag and Cu have identical normalized FCC topology but distinct visible reflectances, so topology alone does not determine color. Their atomic lattice spacings also fail the scale condition for ordinary first-order visible Bragg diffraction. The interactive 4D-shadow view is an explicit w=0 embedding and projection, separate from physical inference and optical calculation. All 218 tests pass; independent replay checks 67 cells, 4,411 reflectances and 22 colors. The result is compiled reference geometry and computation using external measured optical response, not an ab-initio color prediction or new dimensional evidence. Earlier sources, results and the full 1.73 paper are retained.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.73",
   "title": "addition",
   "text": "Appendix BV and Element Projection Lab 0.12.0 implement an explicit-loss synthetic detector response and frozen injected-signal closure test. At unit strength, 500 expected truth events give 396.970157 reconstructed and 103.029843 missed events. Correct-response mean-data fitting recovers strength 1, while underestimating efficiency by 20% recovers 1.25 with an identical fitted spectrum and likelihood. This is an exact source-yield/efficiency non-identifiability result, independently checked over 6,000 synthetic histories and 18,000 fits. All 192 unit tests and 1,231,728 independent numerical checks pass. Gaussian resolution, equal weights, efficiency and background are toy assumptions, not ATLAS calibration; the original excluded benchmark, published negative results and real-data recast block remain unchanged. The contribution is written conditional mathematics and finite synthetic computation, not new physical evidence or a unique identification of hidden particles or dimensions.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.72",
   "title": "addition",
   "text": "Appendix BU and Element Projection Lab 0.11.0 add an offline, four-scenario contour-relative parameter explorer. A declared computational viewport contains 12,099 nodes per observed contour; independent source-decimal rational arithmetic verifies all 48,396 grid classifications and 2,916 additional probe classifications. Nine nonzero horizontal segments at five table/k levels are missed by the coarse regular grid but retained by off-grid tests; a repeated vertex is not mistaken for an ambiguous interval. The engine distinguishes above/below contour from missing k coverage, ambiguous geometry, boundary, and the nonperturbative region. The viewport is not a certified likelihood scan rectangle, no joint confidence is calculated, and above-contour points are not confirmation. The unchanged benchmark remains excluded in all four individual observed scenarios. No physics parameter or prior negative result is retuned; the full previous paper is preserved.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.71",
   "title": "addition",
   "text": "Appendix BT and Element Projection Lab 0.10.0 ingest the full user-supplied HEPData YAML archive: 24 contour tables, 1,978 coordinate pairs, and submission metadata. At the unchanged k=500 GeV, M5=6000 GeV benchmark, observed limits are approximately 7.063338 TeV (dielectron with mass thresholds), 9.815289 TeV (diphoton with thresholds), 8.735511 TeV (dielectron without thresholds), and 10.896422 TeV (diphoton without thresholds). Each observed scenario excludes the benchmark under its own published 95% CL result; no combined confidence level or independent experimental replication is claimed. All 24 slices are unique at this k, and an independent exact-rational implementation agrees through 349 checks, with maximum boundary discrepancy 1.82e-12 GeV. The twenty expected-limit curves are retained only as diagnostics. The archive contains no spectra, response matrices or likelihood objects, so it closes the published-contour lookup gap, not the full detector-recast gap. This is retrospective computation from external measured limits, not a new measurement, a fit, dimensional discovery, or universal exclusion. Earlier results and the complete 1.70 paper are preserved.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.70",
   "title": "addition",
   "text": "unknown",
   "basis": "unknown",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.69",
   "title": "addition",
   "text": "Appendix BR and Element Projection Lab 0.8.0 compile the primary spin-2 clockwork/linear-dilaton equations at k=500 GeV and M5=6 TeV, a benchmark explicitly generated by ATLAS for analytic-template validation. The Planck relation gives R=0.0206137688164 GeV^-1, kR=10.3068844082, and 1/R=48.5112649176 GeV. There are 102 modes below the common 5 TeV cap, from 502.347831 to 4973.346835 GeV. In the paper's massless-SM approximation, the maximum Gamma_SM/m is 1.64244e-4 and the maximum Gamma_SM/Delta_next is 0.0169231; all compiled modes lie below the paper's 28.6083 TeV resolved-tower condition. The massless channel ratios are BR(gamma gamma)=12/283 and BR(e+e-)=6/283. Eleven new production tests pass, and an independent implementation performs 2,454 comparisons over every mode. This closes the numerical mass/coupling/SM-partial-width gap for one truth-level benchmark, not the hadronic production, detector response, likelihood, nuisance, or classifier gaps. HEPData again presented a persistent human-verification challenge; that is an access result, not non-publication. The benchmark is not treated as a fit or viable point, and this is conditional mathematics plus finite computation--not a measured excess, exact ATLAS recast, physical fifth-dimension evidence, universal grid/tick, or theological identification.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.68",
   "title": "addition",
   "text": "Appendix BQ and Element Projection Lab 0.7.0 execute the recast-readiness test demanded by revision 1.67. The exact ATLAS forward equation shows that a truth-level resonance tower does not determine reconstructed bin counts without per-mode production, branching fractions, acceptance/efficiency, and detector transfer. A frozen 13-component contract finds only three components ready and blocks the detector-level replay rather than imputing the other ten. The exact counterexample keeps truth weights and efficiencies fixed while two admissible column-stochastic detector responses change the reconstructed spectrum from [8,3,0] to [4.75,4.75,1.5], with the same total count of 11. Nine new production tests and an independent 15-check scalar replay pass. The official HEPData endpoint could not be materialized through the available web client because of an access challenge; that is explicitly not reclassified as non-publication. This is written mathematics and finite synthetic computation, not a new measurement, successful ATLAS recast, positive evidence for another dimension, universal exclusion, or theological identification.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.67",
   "title": "addition",
   "text": "Appendix BP and Element Projection Lab 0.6.0 execute a frozen retrospective evidence audit on the exact signed significances printed in ATLAS's 139 fb^-1 periodic dielectron/diphoton search. At the preselected periodicity-focused R<50% row, the dielectron value is +1.5 standard deviations and the diphoton value is -0.2. Across all four reported threshold variants, one-sided normal-tail probabilities with an arbitrary-dependence Bonferroni correction are 0.267229 and 1.0 for the most positive dielectron and diphoton values. The paper's model-dependent search also reports no significant deviation. The necessary cross-channel evidence gate therefore fails. Eight new production tests and a twelve-check independent standard-library replay pass. The equally important correction is procedural: because the publication and its null conclusion were already public, this is not a blind preregistration or a reproduction of the ATLAS likelihood. It is measured-input retrospective auditing plus finite computation, not a new measurement, discovery of another dimension, universal exclusion, or theological identification. A separate latest-source check found that the RRLS package no longer matched its own documented integer-validation and independent-verifier contract. Audited extension 2 restores strict integer inputs, records the collision search bound, and reconstructs collision certificates without calling the production solver; all 20 regression tests, five legacy checks, 16,250 exhaustive integer cases, and 600 generated rational cases pass. That is a software correction, not physical evidence.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.66",
   "title": "addition",
   "text": "Appendix BO and Element Projection Lab 0.5.0 impose a physical-dimension evidence gate and close one invalid route to such evidence. For the declared real five-coordinate skew-linear motion, every continuous linear three-vector observation is exactly a constant plus at most two ordinary sine/cosine pairs; two conventional temporal oscillators therefore reproduce the alleged 5D projection for all times. In 512 random trials the two realizations agree over 512,512 vector samples to maximum component error 5.33e-15; an independent scalar implementation checks 299,919 components with maximum error 3.55e-15. A simple flat-circle Kaluza--Klein relation is retained only as a model-specific example: two labelled masses merely calibrate its two parameters, while later masses become predictions. Current ATLAS periodic-spectrum, CMS high-mass diphoton, and Eot-Wash short-range-gravity searches report null results and exclusions rather than positive evidence. Thus the present animations and optical oscillators are representations, not evidence for another spatial dimension. The next admissible experiment is a preregistered public-data search for a correlated tower, including frozen masses, widths, spin/coupling/channel relations, background, multiplicity correction, and reserved validation. This is written mathematics and finite synthetic computation plus cited external measured limits--not a new measurement, dimensional discovery, or theological identification.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.65",
   "title": "addition",
   "text": "Appendix BN and Element Projection Lab 0.4.0 freeze the revision-1.64 Au/Ag response comparison under identity EPL-AU-AG-COLOR-2026-09-20-v1. The manifest fixes the four coefficient vectors as hexadecimal IEEE-754 values, source table and executable hashes, train/holdout split, equations, wavelength domain, scoring rules, boundary warnings, headline results, and prohibited changes. The evaluation module contains no optimizer and verifies every locked artifact before scoring; future refitting, bound changes, and model selection are forbidden under this identity. Eight new tests pass, and a separate implementation verifies the manifest plus four artifact hashes and replays all 64 predictions with maximum discrepancy 4.44e-16. This is an anti-leakage and reproducibility result, not new measured evidence or an upgrade from phenomenological response to unique band, relativistic, higher-dimensional, or theological mechanism.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.64",
   "title": "addition",
   "text": "Appendix BM and Element Projection Lab 0.3.0 execute the first frozen real-data model-class test behind the gold/silver color observer. For each metal, eleven Johnson--Christy wavelengths fit either a three-parameter damped free-electron response or a six-parameter response with one additional interband oscillator; five fixed wavelengths remain untouched until scoring. Gold holdout reflectance MAE falls from 0.154691 to 0.019718, an 87.253% reduction. Silver falls from 0.006840 to 0.002727, a smaller 0.004112 absolute gain because its visible response is already nearly free-electron-like. Nine new tests pass, and an independent scalar implementation replays 64 predictions and 218 checks with maximum aggregate-metric discrepancy 2.16e-16. The correction is equally important: an oscillator ablation is not a relativistic/nonrelativistic comparison, the richer model has three extra fitted parameters, and two fits hit declared parameter bounds. This supports a wavelength-dependent interband channel within the tested classes, not a unique band Hamiltonian, physical extra dimension, or theological cause.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.63",
   "title": "addition",
   "text": "Appendix BL and Element Projection Lab 0.2.0 add the missing condensed-matter optical observer for bulk gold and silver without assigning color to one isolated atom. Johnson--Christy's room-temperature measured complex refractive indices are passed through the exact normal-incidence Fresnel map and a declared finite CIE observer. At 450.9 nm the calculated reflectances are 0.408220 for Au and 0.980347 for Ag; at 659.5 nm they are 0.962585 and 0.990566. Gold's mean red-minus-blue reflectance is 0.537373, versus 0.013155 for silver. All 19 package tests pass, and an implementation importing no production optics code replays 802 dense reflectance values with maximum discrepancy 5.55e-16. The decisive correction is that the all-element atom atlas cannot predict bulk color: lattice-periodic bands, occupations, optical transition matrix elements, damping, and relativistic terms intervene. This is a measured-input forward calculation, not an ab-initio color prediction, measured work by this project, proof of a fourth/fifth dimension, or theological identification.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.62",
   "title": "addition",
   "text": "Appendix BK and Element Projection Lab 0.1.0 compile all 118 neutral elements into one typed comparison atlas. The exact correction is that an isolated atom has no unique rigid classical surface: the released whole-atom channel is an explicitly rotationally averaged one-electron density and is therefore spherical, while the separate oriented channel displays a declared canonical differentiating-subshell basis. Closed-subshell sphericity follows exactly from the spherical-harmonic addition theorem; oriented \\(s,p,d,f\\) basis densities have allowed even angular ranks through \\(2l\\). Reference configurations, shell populations, radial-node counts, and periodic-table positions are separated from a Slater-screened hydrogenic radial proxy; configurations for atomic numbers 109--118 are marked predicted. All 11 production tests and 13 independent checks pass over every element, including electron counts, capacities, grid uniqueness, hydrogenic normalization, and the addition theorem. These are written mathematics, compiled reference inputs, and finite proxy computation--not measured 3D densities for every atom, many-electron ab initio solutions, rigid electron paths, fourth/fifth-dimensional causes, or a theological identification.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.61",
   "title": "addition",
   "text": "Appendix BJ and Hydrogen Matrix Lab 0.8.0 replace the undefined goal “display everything” with a typed forward-observer contract. One declared ideal coherent 1s + 2p_z state now generates synchronized position density, conserved probability flow, electric charge/current, expectation dipole, far-zone coherent electromagnetic radiation, Poynting flux, and an operator-filtered harmonic catalog. Eight frozen checks pass, including charge continuity, transversality, |B|=|E|/c, angular power integration, and the parity-silent 1s + 2s control; a separate implementation passes 12 checks. The decisive exact boundary is not a fit: cycle-averaged classical expectation-dipole power is exactly one half of the initial quantum E1 energy-loss rate for the equal packet's half-excited population. Therefore a classical projected wave is not the complete spontaneous-photon channel. The compiler marks quantized-field/vacuum statistics and spin magnetization as blocked and higher-dimensional cause as non-identified. No new measurement, complete QED engine, physical fourth/fifth dimension, or theological cause is claimed; all earlier rejections and fixed-grid boundaries remain unchanged.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.60",
   "title": "addition",
   "text": "Appendix BI and Hydrogen Matrix Lab 0.7.0 audit golden-ratio, golden-angle, Fibonacci, icosahedral, and proposed “golden alignment” claims with exact algebra before accepting numerical matches. The exact positive result is structural: the Fibonacci companion matrix has dominant eigenvalue phi, declared icosahedral coordinates contain phi, and the E8 identity is 2 cos(pi/5)=phi. The exact negative result is equally important: every ideal Coulomb bound-state energy gap is rational in Hartree, so no ratio of two nonzero gaps can equal irrational phi. An exhaustive frozen n<=40 scan checks 303,809 distinct pairs; the closest ratio differs from phi by 9.76537e-6 and remains a coincidence. Likewise, a finite angular grid step k/N cannot equal the irrational golden-turn fraction 1/phi^2; Fibonacci grids are periodic approximations only. All 51 package tests and nine independent checks pass. External E8, quasicrystal, and phyllotaxis measurements are retained as evidence for their declared systems, not transferred to hydrogen, hidden dimensions, or theology.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.59",
   "title": "addition",
   "text": "Appendix BH answers the bounded question of which quantum equation was missing from the hydrogen visualization. Schrödinger evolution was already present; the omitted bridge was the conserved probability-current field, electromagnetic minimal coupling, and the observable matrix element that filters raw energy-gap harmonics. Hydrogen Matrix Lab 0.6.0 implements the field-free current for the existing 1s + 2p_z packet, proves partial_t rho + div(j)=0, recovers the exact dipole matrix element 256/(243 sqrt(2)) a0, and computes the ideal E1 lifetime 1.59532505 ns. In an equal 1s + 2p_z + 3s packet all three density beats exist but only two are visible to the z electric dipole; the 1s <-> 3s harmonic vanishes by parity, as does the one-photon 1s <-> 2s control. All 42 Hydrogen Matrix tests pass, and an independent quadrature/fourth-order finite-difference audit passes seven frozen checks while retaining the larger full-interior Coulomb-cusp residual. These are written standard quantum mechanics and finite computation, not a measured atom, a particle trajectory, an extra dimension, or a theological identification.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.58",
   "title": "addition",
   "text": "Appendix BG turns one member of revision 1.57's non-identifiable interaction family into a frozen prediction. The range is set at the electron reduced Compton wavelength and the coupling is fitted only to the published H--D 1S--2S central residual. Without refitting it predicts a -201.996425 Hz correction to the historical H--D 2S--8S isotope shift. A published bound-state reference with experimental and theory correlations gives an ordinary signed error of -0.700628 combined standard deviations; adding the operator changes it to -0.720112. The operator therefore earns no predictive credit, but the combined uncertainty is 51.326 times the predicted contrast, so this target cannot exclude it either. This is a historical public-data holdout, not a blind prediction. All 164 package tests and an independent direct-radial-quadrature audit pass. No physical dimension, universal grid/tick, string particle, or theological cause is inferred.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.57",
   "title": "addition",
   "text": "Appendix BF replaces the unspecified extra-dimensional hydrogen correction with one explicit finite-range central proxy, \\(\\delta V/h=g e^{-r/\\lambda}/r\\), but first evaluates the published H--D 1S--2S correction ladder. A 2022 QED/nuclear-structure expression supplied with the muonic-deuterium radius \\(2.12763(78)\\) fm predicts \\(670994336.042632\\) kHz versus the direct measured \\(670994334.606(15)\\) kHz: a +1.436632 kHz error, only +0.309753 combined standard deviations. The ordinary ladder reduces the crude reduced-mass-only error by a factor of 8837.3. The operator is therefore not required. Moreover, all 61 ranges from 1 fm through 10 nm can be paired with a coupling that fits the same central residual exactly, while the endpoint pairs disagree by 121.784 Hz on a prospective 1S--3S isotope correction. This is an exact one-equation/two-parameter non-identifiability result, not evidence for a fifth dimension. All 154 package tests and a separate adaptive-quadrature audit pass. The published values are measured/theory inputs; no new spectroscopy or theological identification is claimed.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.56",
   "title": "addition",
   "text": "Appendix BE replaces the hydrogen feature-count exercise with a frozen transition holdout. NIST H-alpha and H-beta alone calibrate a one-parameter Rydberg-form baseline and a two-parameter phenomenological Delta2 + Delta4 candidate after a declared standard-air-to-vacuum conversion. On untouched H-gamma and H-delta, the added term increases vacuum-wavelength RMSE from 6.030008 to 6.948567 ppm, a 15.2331% deterioration, and is rejected as an improvement. A written counterexample adds an arbitrary term that vanishes on both training lines but changes every later prediction; one coefficient forces H-gamma exactly and still misses H-delta by 7.1389 ppm. Thus perfect calibration does not identify a continuation, a quantum generator, or a physical dimension. All 143 package tests and a separate 50-digit Decimal replay pass. The NIST values are compiled measured references; the conversion and scores are finite computation; no new spectroscopy, complete QED calculation, or higher-dimensional operator is claimed.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.55",
   "title": "addition",
   "text": "Appendix BD generalizes the fixed skew-linear harmony engine to arbitrary latent dimension and exposes explicit latent position vectors, tangent vectors, and their calibrated 3D projections. A single three-output instantaneous observer has nullity at least (d-3), while a simultaneous known observer bank identifies the common state exactly iff its vertically stacked matrix has rank (d). The frozen banks reconstruct synthetic states in dimensions 4, 5, 6, and 8 to numerical precision, while an exact 5D counterexample moves the latent state by one unit without changing one observer's output. More observers remove projection ambiguity but do not add intrinsic generator frequencies: the capacity remains (lfloor d/2\\rfloor). Thus 4D/5D have two positive modes, 6D/7D three, and 8D/9D four. Eight dimensions first pass the four-Balmer-feature count, but this is only a necessary capacity gate and predicts no wavelength, intensity, selection rule, or physical dimension. All 132 package tests and a separate observer-bank audit pass. These are written mathematics and finite synthetic computation, not measured higher-dimensional strings.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.54",
   "title": "addition",
   "text": "Appendix BC subjects the new five-coordinate harmony observer to an external hydrogen spectroscopy gate. The NIST H I strong-line table supplies four resolved visible Balmer features at representative air wavelengths 410.17400, 434.04620, 486.13615, and 656.28518 nm. A fixed real 5-by-5 skew generator with a linear observation has at most two distinct positive temporal frequencies; any further linear exposure can only attenuate or erase them. Therefore the current model cannot reproduce all four features as one linear temporal spectrum, even though two free frequencies can be calibrated to any selected pair. In the three frozen ratio families, the 3:2 case matches two of four features at 1% only after calibration, while the exact capacity deficit remains two. Seven new tests and an independent Decimal replay pass. This is a useful rejection of the present linear observation model, not of every higher-dimensional theory: adding state transitions, nonlinear mixing, time variation, interactions, or more state dimensions creates different model classes that require fresh predictions. No mismatch is assigned to a hidden string, a fifth dimension, or a theological cause.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.53",
   "title": "addition",
   "text": "Appendix BB replaces the undefined phrase “five-dimensional harmony” with a complete classification for fixed norm-preserving linear motion.  Every real 5-by-5 skew generator has two nonnegative rotation frequencies and one zero direction, so every linear 3D projection is a constant plus at most two elliptical sine/cosine harmonies.  The engine classifies eight archetypes and 512 randomized generators by spectral relation, visible-hidden coupling rank, known-generator observability, one-history Hankel rank, projected span, exposure loss, hidden-basis gauge, and tick alias.  It recovers all 512 bounded matrix-supplied spectral labels with maximum frequency error \\(1.11\\times10^{-15}\\), but exact counterexamples prevent ontological overreach: two rank-one couplings have observability ranks four and five; a full-rank known system can have only rank-three single-history output; 101 hidden-basis rotations change the generator by 4.0736 while preserving every 3D sample within \\(5.17\\times10^{-14}\\); and finite exposure lowers recoverable rank from five to three or one.  Observation is passive in this engine and does not physically collapse the latent state.  All 114 tests pass and an independent implementation checks 48 catalog relations, 2,048 randomized relations, 6,464 gauge-time states, two exposure erasures, and 81 aliases.  These are written mathematics and finite synthetic calculations, not evidence for physical fifth-dimensional particles.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.52",
   "title": "addition",
   "text": "Appendix BA tests whether molecular vibrations alone distinguish solids, liquids, and gases.  A deliberately phase-blind water descriptor using the three NIST isolated-molecule fundamentals is identical for ice, liquid water, and vapor controls at one atmosphere, so every deterministic descriptor-only classifier gives one label and must miss at least two of the three balanced controls.  The replacement is an explicitly collective spectral model, motivated by velocity-autocorrelation and two-phase thermodynamics methods, with a diffusive low-frequency component and a solid-like vibrational component.  In the frozen surrogate, the gas-like fraction is recovered exactly on 101 continuum states and the three reference spectra have positive pairwise squared Hellinger distances; however, the continuum also proves that there is no universal three-family threshold in vibration space.  All 98 tests pass and a separate implementation audits 2,401 frequencies, 101 continuum states, three phase labels, and three spectral distances.  The line shapes are constructed rather than molecular-dynamics or measured spectra, so the result is a checked measurement design, not evidence for a fifth dimension, a universal lattice, or a theological cause.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.51",
   "title": "addition",
   "text": "Appendix AZ turns the next alleged “hidden variable” into a quantified bubble inverse problem.  The revision-1.50 value 4110.9205 Hz remains valid under its declared ideal Minnaert assumptions, but adding vapor pressure and surface-tension stiffness gives 4048.9557 Hz for the same 0.800 mm bubble at fixed effective polytropic exponent \\(\\kappa=1.4\\), a 1.5073% shift.  Holding the old pitch fixed while scanning the explicit sensitivity bracket \\(1\\le\\kappa\\le1.4\\) gives radii from 0.6659558 to 0.7879498 mm.  A 401-state family adjusts fractional volume amplitude so that carrier frequency, oscillating volume, decay, arrival, and distance all remain fixed; its endpoint pressure traces agree within \\(3.667\\times10^{-16}\\) Pa.  The corresponding 3-by-4 log-observable Jacobian has rank three and nullity one.  Thus even the complete pressure trace in this bounded model selects an observation fiber rather than a unique source state.  All 88 tests pass and an independent implementation checks 401 states and 7,680 endpoint samples.  The interval is synthetic sensitivity analysis, not a measured thermal law, and the result identifies no extra dimension, string particle, or theological cause.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.50",
   "title": "addition",
   "text": "Appendix AY adds a Water-Drop Acoustic Observer. A declared 4.0 mm drop produces a finite-depth capillary--gravity packet, and one declared 0.800 mm entrained bubble supplies an ideal 4110.92 Hz Minnaert carrier to a surface-coupled airborne pressure candidate. The calculated 0.75 m air transit is 2.16682 ms, so the delivered three-second movie synchronizes 180 picture frames at 60 fps with 144,000 pressure samples at 48 kHz. All 79 tests pass, and an implementation-independent audit reproduces 1,658,880 surface scalars, every pressure sample, and the media metadata. Two corrections are retained: the human eye has no universal frames-per-second clock, and one tone does not uniquely recover bubble geometry—doubling radius while quadrupling pressure leaves ideal pitch unchanged. Bubble formation, damping, coupling, and room response are declared rather than predicted, so the waveform is a finite synthetic candidate, not a calibrated recording, measured physical evidence, or evidence for a hidden dimension.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.49",
   "title": "addition",
   "text": "Appendix AX adds the Sun–Water Eye Observer. A fixed distant 5772 K spectral source illuminates a constructed moving water surface; the executable uses the IAPWS wavelength-dependent refractive index, unpolarized Fresnel reflection, vector Snell refraction, and a finite CIE-standard observer to render a 150-frame underwater caustic at 60 fps. The run contains 48,988,800 ray–wavelength–exposure samples, all 65 tests pass, and a separate implementation checks the optical formulation, 9,331,200 rendered RGB channels, and media metadata. The decisive correction is an observer collision: two nonnegative spectra remain 0.709286 apart in relative spectral norm while their XYZ outputs agree within \\(1.421\\times10^{-14}\\). Human color observation is therefore not one-to-one and cannot measure every optical property. The animation is also not a hologram because it transports spectral irradiance and discards complex optical phase; 60 fps governs only displayed exposure averages, while the 384–789 THz optical carrier is analytically averaged. The water motion and camera are constructed rather than measured, and no individual-photon path, physical fourth/fifth dimension, or universal grid/tick is inferred.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.48",
   "title": "addition",
   "text": "Appendix AW turns the origami/oscilloscope analogy into a precise observation map and ordinary electrostatic control. Rigid TIP3P-like charges are neutral and give a 2.346971 D model dipole. A single-Debye response calibrated to the published 18.56 GHz primary relaxation of 25 degree C water has the expected \\(1/\\sqrt2\\) gain and 45-degree lag, with an independent numerical integration agreeing to \\(3.529\\times10^{-10}\\). The decisive result is non-identifiability: two visibly different 192-coordinate molecular orientation histories remain 0.688568--0.820871 RMS apart while producing the identical complete vector-mean polarization trace. The oscilloscope therefore records a fold of the state, not the state itself. All 52 tests pass and an independent implementation checks 92,160 stored atomic-coordinate scalars. The relaxation frequency is a calibration input, the microscopic movies are constructed controls rather than liquid-water molecular dynamics, and no physical fifth dimension, universal grid/tick, magnetic mechanism, or theological cause is inferred.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.47",
   "title": "addition",
   "text": "Appendix AV builds the requested Water Harmonics engine without promoting the animation to evidence. Sixty-four explicit rigid H2O molecules occupy a 12.429442-angstrom periodic box derived from a 997.047 kg/m3 room-temperature density input. An ordered degree-four tetrahedral scaffold carries a 320-coordinate state: three visible displacement coordinates and two hidden coordinates per molecule. The frozen generator has block form \\(G=\\left[\\begin{smallmatrix}0&C\\\\-C^T&0\\end{smallmatrix}\\right]\\), so its flow preserves state norm; the first three coordinates become a 64-frame 3D animation while translucent halos expose the otherwise hidden phase convention. Forty-one package tests pass and an independent implementation audits 36,864 rendered atomic-coordinate scalars. The counterexample is decisive: an arbitrary hidden rotation with no visible coupling gives exactly zero 3D motion, while integer-tick frequency aliases remain. The scaffold is not liquid-water molecular dynamics, the density and geometry are inputs rather than predictions, the colors are not measured fields, and electricity, magnetism, hydrodynamics, quantum dynamics, a universal physical tick, and a physical fifth dimension remain unestablished.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.46",
   "title": "addition",
   "text": "Appendix AU implements the requested matrix language for candidate higher-dimensional molecular motion. A graph-derived five-coordinate state evolves by a real skew-symmetric generator, \\(X_5(t)=X_5(0)e^{t\\Omega^T}\\), and a fixed projector gives explicit 3D positions and velocities. All 17 frozen C5--C7 alkane rows receive two frequency coordinates derived from their reference boiling and fusion values, and a 65-frame n-heptane animation is generated. The inverse claim fails, however: shuffled property labels reconstruct equally exactly; an arbitrary uncoupled hidden-plane angular speed is completely invisible in 3D; and fixed-tick samples alias \\(\\omega\\) with \\(\\omega+2\\pi k/\\Delta\\). Thirty unit tests pass, and an independent implementation reproduces 68 property/frequency checks, 2,730 trajectory scalars, 124 hidden-invariance states, and 205 alias pairs. The matrices are therefore a valid theoretical candidate family and visualization, not a unique recovery of physical fourth- or fifth-dimensional motion from static property data.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.45",
   "title": "addition",
   "text": "Appendix AT executes the larger alkane-isomer extrapolation reserved by revision 1.44.  Ordinary least-squares models are fitted only to all C5 and C6 constitutional isomers and evaluated once on all nine C7 isomers.  A topology model using carbon count, the carbon-skeleton Wiener index, and the first Zagreb index reduces held-out normal-boiling MAE from 8.554 K for carbon count alone to 4.500 K and RMSE from 10.107 K to 5.382 K.  The same representation catastrophically fails for fusion: MAE rises from 27.574 K to 135.934 K, including an unclipped 410.46 K prediction for n-heptane versus 182.6 K.  Seventeen tests and an independent graph/linear-algebra replay pass.  The supported conclusion is property-specific: simple topology transfers useful boiling information across this size split but does not encode crystal-sensitive melting.  Failure establishes neither a hidden string nor a unique omitted variable; packing, conformation, polymorphism, intermolecular free energy, small-sample extrapolation, and model form remain live alternatives.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.44",
   "title": "addition",
   "text": "Appendix AS executes a bounded real-data test of the proposal that arrangement predicts material properties.  The three pentane isomers have identical formula and mass but NIST average normal boiling points of 309.2 K, 301.1 K, and 282.6 K.  A preregistered carbon-skeleton Wiener-index rule trained on the two structural endpoints predicts the held-out middle isomer at 295.9 K, 5.2 K below its measured average, and places it on the correct side of the 293.15 K boiling boundary.  Any formula-only deterministic predictor has worst error at least 13.3 K on these data.  The counterexamples are retained: fusion temperature is not monotone in the same coordinate, and period-5/fcc/d10 silver and palladium differ in recommended 300 K total resistivity by a factor of 6.470.  Twelve tests and a separately implemented audit pass.  The supported conclusion is that geometry carries predictive information but no single scalar harmony, coarse lattice label, or hidden-dimensional story currently predicts phase or conductivity.  Temperature, pressure, packing, electronic bands, valence, and scattering remain explicit variables.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.43",
   "title": "addition",
   "text": "Appendix AR turns the fixed-grid/fixed-tick premise into a falsifiable engine and separates it from the stronger claim that every observable value must itself be an integer multiple of a coordinate increment. The new lab implements an exact reversible integer wave in four spatial coordinates at integer time ticks and constructs two distinct full states with the same 3D projection. It also proves that finitely many positive-width measurement intervals cannot identify an arbitrarily small universal tick: every tick no larger than twice the smallest tolerance passes by nearest-integer rounding. Applied to the printed precision of two NIST Lyman-alpha wavelengths, 1 attosecond, 1 zeptosecond, and 0.1 zeptosecond direct ticks fail, while the CODATA Planck-time candidate passes trivially far below the reporting resolution. Decimal reporting itself creates an exact apparent tick, demonstrating why common divisibility of rounded values is not evidence for a natural lattice. Thirteen tests and one separately implemented exact audit pass. These are written mathematics and finite computations, not evidence that spacetime, hydrogen, or all observables obey this lattice.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.42",
   "title": "addition",
   "text": "Appendix AQ corrects the statement that the ideal hydrogen engine omitted electromagnetism: its Coulomb potential is already the nonrelativistic electromagnetic interaction. A frozen H0/H1/H2 ladder shows that ordinary electron-proton reduced mass removes 97.7729% of the old Lyman-alpha centroid error. A reduced-mass point-Dirac calculation predicts both fine-structure lines, removes 99.3796% of the old error, and leaves a -3.3034 ppm centroid residual. That remainder is not assigned to a fourth spatial plane because complete recoil, Lamb/QED, finite-size, hyperfine, linewidth, and external-field terms remain omitted. A higher-dimensional candidate now requires a derived operator, coupling, symmetry, frozen parameters, and a fresh state-dependent prediction before fitting.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.41",
   "title": "addition",
   "text": "Appendix AP tests two proposed explanations of the hydrogen rotor failure. A frozen mixture of up to four phase-shifted copies of the same release-0.3 geometry improves held-out squared Hellinger error by only 0.3403%, remains nearly eight times worse than a time-mean baseline, and fails five of six gates. This rejects that bounded missing-component rescue, not every hidden-variable model. A separate spectroscopy-clocked two-level calculation shows that negative temperature reverses population ordering only inside an upper-bounded truncation; thermal equilibrium is stationary because its density matrix commutes with the Hamiltonian. Coherent phase direction reverses under time reversal, not by changing temperature. Absolute zero and a finite “maximum Kelvin” are therefore not opposing rotation phases, and melting delay does not identify microscopic rotation direction.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.40",
   "title": "addition",
   "text": "Appendix AO calibrates the Hydrogen Matrix Lab's animation clock to the two NIST Lyman-alpha fine-structure wavelengths and executes a frozen train/holdout test of the tangent-four-dimensional-sphere projected-envelope hypothesis. The ideal fixed-proton Coulomb wavelength misses the NIST listed-intensity-weighted centroid by -0.0532468%. After fitting on eight phases, the rotor's mean squared Hellinger error on sixteen unseen phases is 0.172620, versus 0.022197 for a frozen time-mean baseline and 0.072179 for a spherical radial baseline. It fails four of five predeclared gates, including held-out axial-centroid correlation, nodal leakage, and opposite-phase mirror structure; an independent implementation reproduces the calibration, matrices, scores, and rejection. The exact rotor family is rejected as an adequate generator of the declared quantum reference. NIST spectroscopy constrains energy/time rather than a unique 3D ontology; no measured time-resolved 3D density or fourth spatial dimension is claimed.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.39",
   "title": "addition",
   "text": "Appendix AN resolves the v1.26 dependence counterexample only inside a declared binary first-order Markov class. A past-only Krichevsky--Trofimov predictor divided by a fixed null transition probability forms a nonnegative likelihood-ratio martingale, giving a 1% anytime bound by Ville's inequality. On fresh 400-look synthetic paths from the declared 90%-persistent null, the Markov process crossed on 39/5,000 histories, while the old iid-sign process--whose assumption is false there--crossed on 4,134/5,000. The new process detected 4,629/5,000 chains at 97% persistence, 4,999/5,000 at 75%, and 5,000/5,000 balanced iid chains. A separately implemented replay reproduced 24,000,000 decision states. The guarantee requires the fixed transition matrix and first-order homogeneous Markov law in nonzero-sign event time; it is not distribution-free, does not validate estimated or changing null persistence, and supplies no physical or theological identification.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.38",
   "title": "addition",
   "text": "Appendix AM tests the proposal that pieces exhibit reusable movement frequencies. A 102-class relational coordinate combines piece type, oriented displacement, square phase, and distance/geometry changes to both kings. Eight phase-shuffled five-ply training searches freeze a defender ordering without pruning any legal move. On the White-attacker nine-ply proof it reduces calls by 6.82%, generated edges by 18.26%, horizon nodes by 28.83%, and measured proof time by 34.76% versus C7; including training, total time falls 29.36%. An audit checks 168,882 legal-move instances and confirms every learned order is a complete permutation. Stronger variants fail: direct pair-conditioned dances add 49–81% calls, online learning adds 52.53%, and the Black-attacker relation model worsens calls, edges, and time. The frequency is therefore a role-specific computation-allocation pattern, not a universal chess law, sound pruning rule, state compression, or solution of chess.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.37",
   "title": "addition",
   "text": "Appendix AL introduces a horizon-safe state projection for exact bounded chess proofs. Because an identical full chess position cannot recur in two plies, its recurrence period is at least four; a position first encountered at ply \\(i\\) cannot become threefold before ply \\(i+8\\). At a nine-ply horizon, only the root and post-first-move repetition candidates must remain in the memo key. The independently verified computation proves that neither White nor Black can force mate from the orthodox initial position within nine plies. White requires 2,951,587 calls and 5,259,337 generated edges; Black requires 127,991 calls and 736,248 edges. A separately written verifier exactly reproduces all reported counts and checks 9,302 legal two-ply non-return paths plus explicit first-threefold cycles. The finite mate frontier is extended, but the root WDL interval remains [-1,+1]; chess is not solved.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.36",
   "title": "addition",
   "text": "Appendix AK runs C6 on the actual orthodox initial position rather than a synthetic tactic. Dependency-ordered AND/OR search independently verifies that neither White nor Black can force checkmate within seven plies. The White-attacker run visits 128,724 nodes and the Black-attacker run 14,846; a separately written lexical verifier reproduces both negative results with 106,322 and 15,082 nodes. Combined, C6 uses 18.26% more nodes than lexical order, falsifying transfer of its small-corpus ordering advantage to this negative-mate proof. White's C6 frontier grows from 21 nodes at one ply to 486, 7,536, and 128,724 at three, five, and seven plies. The run does not narrow the initial WDL interval [-1,+1]; it shows that ordering alone leaves the exponential wall intact. The next required object is a proof-carrying forcing-dependency abstraction with sound completion bounds.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.35",
   "title": "addition",
   "text": "Appendix AJ replaces raw local attack counts with a legal single-square capture–recapture dependency graph. On a deterministic eight-position synthetic corpus requiring genuine legal recaptures and minimal three-ply forced mates, C6 reduces exact AND/OR proof nodes from 10,394 under lexical order to 668, versus 809 for C5 tension and 699 for a checks/captures forcing baseline. Thus C6 improves aggregate nodes by 17.43% over C5 and 4.43% over forcing on this corpus, but its graph construction leaves it 10.22% slower than forcing in measured wall time; it also loses to forcing on four of eight individual positions. An independent verifier reconstructs all eight exchange graphs, reproduces every winning root move, and checks 33 defender branches with 53 mating continuations. The exchange value remains heuristic outside its restricted subgame and cannot prune; the orthodox initial position remains unsolved.",
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  },
  {
   "version": "1.34",
   "title": "addition",
   "text": "Appendix AI turns the proposed attack/defence map into a local tension field. For each square it records White and Black attack multiplicities, their product as interaction tension, their difference as control imbalance, and occupant fragility. A tension-breaking entry is a capture into a contested enemy square with a favorable pre-move attack surplus and positive local tension release. On a 43-legal-move Scholar's-mate fixture, the field identifies f7 as a two-attacker/one-defender target and ranks Qxf7# first; an independent implementation rebuilds all attack origins, checks all 64 square formulas, and verifies the mate and its zero replies. The counterexample is equally important: total tension rises from 16 to 28 after checkmate, so heat is a computation-allocation signal rather than a value function. C5 orders moves but cannot prune any move without the earlier interval-dominance certificate; full chess remains unsolved.",
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  },
  {
   "version": "1.33",
   "title": "addition",
   "text": "Appendix AH formalizes human chess search as a constraint wave over attack maps, safe regions, mobility, confinement, relational orientation, and worst replies. In table-hidden KRK/KQK experiments, a shared geometric signature proves every WDL value without reading solved labels. Mobility, safe-region size, and dot/cross orientation each improve sound mate-distance bounds; the combined wave makes DTM exact for 44,633/50,015 KRK states (89.24%) and 45,276/46,137 KQK states (98.13%) and certifies 90.65% and 92.45% of legal choices as ignorable under WDL+DTM bounds. An independently written verifier checks all 96,152 state rows against exact certificates and reproduces the dominance totals with zero violations. The same experiment rejects the current construction as a full-chess shortcut: state compression falls to about 1.007× and successor-profile compression to about 1.000×. The next candidate is a constraint-delta quotient that canonicalizes what a move changes rather than encoding the absolute board.",
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  },
  {
   "version": "1.32",
   "title": "addition",
   "text": "Appendix AG crosses from isolated endgames to a full orthodox move-state engine and an exact probe of the normal initial position. Six official Stockfish perft references totaling 500,117 nodes and ten targeted castling, en-passant, promotion, repetition, move-count, mate-precedence, and basic-dead-material checks pass. A four-ply proof-only search visits 206,604 nodes and 206,603 edges, finds eight checkmate leaf visits and 242 certified dominated choices below the root, but eliminates zero of the twenty initial moves: every root child and the root retain $[-1,+1]$. The proposed move-elimination value is refined into forcing dominance: game-theoretic result first, mate efficiency second, and the number of certificate-backed ignored alternatives third. This is a proof-efficiency tie-breaker, not a heuristic license to delete moves. Full chess remains unsolved; the active wall is strong sound pre-solution bounds plus a complete dead-position treatment and an independently verified strategy DAG.",
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   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
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  {
   "version": "1.31",
   "title": "addition",
   "text": "Appendix AF freezes the full-chess target and converts the proposal to discard disadvantageous moves into an exact interval-dominance theorem. Every state carries sound White-relative bounds $[D^-,D^+]$; a White move $a$ may be removed only when another move $b$ has $D^-(b)\\ge D^+(a)$, with the dual inequality at Black nodes. An exact KQK computation independently verifies 368,452 raw states, 46,137 $D_4$ classes, 609,873 transitions, and a 20-ply maximum mate. Strong-bisimulation refinement compresses KRK only from 50,015 to 49,885 classes and KQK from 46,137 to 45,249, falsifying the idea that strict future-law identity alone crosses the scaling wall. Post-solution pruning measures show that strictly worse WDL moves remove only 7.21% and 6.61% of edges, while WDL+DTM oracle labels reduce ideal branching to 1.888 and 2.306. Because those labels already assume the answer, the new candidate is proof-carrying interval abstraction with counterexample-guided refinement. Full-chess, quantum-algorithmic, and physical-dimensional claims remain separate gates.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.30",
   "title": "addition",
   "text": "Appendix AE applies the framework's hidden-state, projection-collision, canonicalization, and cycle rules to a finite adversarial system. Dimensional Chess C1 solves all 399,112 legal states of the declared 8×8 king-and-rook versus king universe. A proved \\(D_4\\) quotient reduces them to 50,015 classes; 400,120 exhaustive symmetry-transition comparisons pass. Retrograde fixed-point analysis classifies 21,959 wins, 25,260 losses, and 2,796 draws and finds a 32-ply maximum forced mate. An independently written verifier checks every state, transition, Bellman equation, policy edge, distance, and concrete principal-variation move. This exactly solves the declared KRK abstraction, not full chess; the experiment identifies a sufficiently powerful value-preserving canonicalizer as the unsolved scaling wall.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.29",
   "title": "addition",
   "text": "Appendix AD instantiates Wallbreaker Protocol P3 as P3-R1, an unactivated IBM Quantum-compatible three-qubit pilot. Three prefix-coded eight-cycle probes preserve the ideal Born marginal over each complete cycle by construction. The runner freezes predictions for both allowed settings before delayed random setting generation, binds calibration and ledgers with SHA-256 manifests, uses one shot per circuit/PUB, applies a conservative composite-null e-process, and rejects incomplete or altered provenance. An independent implementation agrees on null, planted-lift, and setting-leak synthetic worlds and 5,000 randomized mathematical checks. No QPU job has been submitted; the current configuration intentionally refuses live execution until a fresh UUID, explicit accessible backend, and actual calibration artifact exist. This is experimental infrastructure, not physical evidence.",
   "basis": "source",
   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
  },
  {
   "version": "1.28",
   "title": "addition",
   "text": "Appendix AC turns the remaining “walls” into a typed pass/fail ledger. It proves a general decomposition of evidence against Born statistics into conditional lift information, marginal Born divergence, and decoder misspecification; the Information-Rate identity follows for marginal-preserving extensions. It also proves that finite observations cannot determine an unrestricted continuation law and introduces simultaneous outcome, setting-leak, and remote-signaling evidence channels. Six 50,000-trial adversarial worlds and 5,000 randomized decomposition checks pass in production and independent implementations. These are mathematical and synthetic results. No natural Born-predictive variable, extra physical dimension, Lorentz-compatible coupling, P=NP proof, or hardware result is claimed.",
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  },
  {
   "version": "1.27",
   "title": "addition",
   "text": "Appendix AB integrates the individual Born-outcome frontier with the existing projection, RRLS, and anytime-valid evidence disciplines. It proves a conservative composite-null supermartingale for calibration uncertainty, a Kraft-weighted e-process for a prefix-coded lift language, and a data-processing collision criterion for compressed predictive coordinates. An independent implementation reproduces 5,000 randomized property checks, two 120,000-trial synthetic paths, and the complexity-penalized power table. These are mathematical and computational results, not physical evidence that Born-random outcomes are predictable. The seven typed layers, eight Q1 basis phases, and seven relative phase coordinates remain distinct objects. Rope Tomography Lab and RRLS code and evidence are unchanged.",
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  {
   "version": "1.26",
   "title": "addition",
   "text": "Appendix AA replaces the vague goal of “heavy-tail robustness” with an exact conditional sign-balance null. A fixed two-sided sign e-process has a written 1% anytime guarantee whenever the selected residual sign has conditional expectation zero; magnitudes need no moments or parametric distribution. Fresh synthetic checks retain 37/5,000 Student-(t_3) null histories and 33/5,000 Cauchy null histories as finite crossing counts while detecting 4,989/5,000 and 4,992/5,000 shifted (t_3) histories. Counterexamples prove that mean zero, marginal sign balance, scale errors, alternating shifts, and isolated magnitude shocks are not covered. This new engine is standalone and does not share or renew the released Gaussian engine's 1% budget. RRLS is unchanged.",
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  {
   "version": "1.25",
   "title": "addition",
   "text": "Appendix Z performs the single fresh paired validation reserved by revision 1.24. The 45%-point/10%-mean candidate improves the declared worst target, noisy six-sigma shocks, by 1.935 percentage points but loses 5.165 points on the persistent-mean target. It therefore fails the predeclared two-point per-target loss guardrail, and the released 30%-point/25%-mean design is retained. Both allocations remain Pareto alternatives rather than one universally dominating the other. The mathematical 1% bound, core detector, sealed v1.22 validation, and RRLS are unchanged.",
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   "source": "Theory of Reality manuscript revision log (v1.97 header), via atlas research-data.js"
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  {
   "version": "1.24",
   "title": "addition",
   "text": "Appendix Y executes revision 1.23's preregistered training-only boundary expansion without reading the sealed v1.22 validation set. Opening the grid changes the conclusion: the released 30%-point/25%-mean cell wins 0 of 64 new training runs, while 16 expanded-grid cells win at least once. A separate 80,000-history synthetic reference selects a 45%-point/10%-mean candidate and improves the declared worst-target rate from 81.80% to 83.58%, but exact selection is unstable and the candidate trades away mean-shift sensitivity. The candidate is therefore recorded but not adopted. The released adequacy engine, its probability guarantee, and RRLS remain unchanged pending one fresh frozen validation.",
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  {
   "version": "1.23",
   "title": "addition",
   "text": "Appendix X tests the repeatability of revision 1.22's allocation choice without reopening its validation set. Across 64 independent training seeds, the frozen 30%-point/25%-mean cell won 49 times, while four cells won at least once. A separate 80,000-history synthetic reference study selected the same cell and found small reference minimax regret for the seed-selected alternatives. However, 62 of 64 winners used the largest tested point fraction and 51 used the smallest tested mean weight. Thus the choice is usually repeatable inside the declared grid but is boundary-limited, not a demonstrated global optimum. The adequacy engine and RRLS are unchanged.",
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  {
   "version": "1.22",
   "title": "addition",
   "text": "Appendix W adds a frozen three-component adequacy rule. A known-covariance mean/variance e-process mixture receives 0.7% and a separately budgeted point-residual gate receives 0.3%; a union bound, not an invalid cross-filtration e-value merge, controls the total anytime false-rejection probability at 1% under the declared Gaussian null. The two allocation weights were selected on training simulations and frozen before one held-out synthetic validation. The hybrid preserves much of the persistent-error power of revision 1.21 while recovering isolated-shock sensitivity, but a heavy-tail counterexample becomes worse. RRLS is unchanged.",
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  {
   "version": "1.21",
   "title": "addition",
   "text": "Appendix V adds a canonical-filtration Gaussian mean-plus-variance e-process and tests it against the v1.19 mean-plus-point rule under one total 1% anytime budget. The new fixed mixture is much stronger for persistent moderate scale errors and the targeted mean error, but a constructed isolated 6-sigma shock exposes the opposite tradeoff. The old engine is retained; neither procedure is called universally superior. Heavy-tail failures remain explicit. RRLS is unchanged.",
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  {
   "version": "1.20",
   "title": "addition",
   "text": "Appendix U implements the moderate-scale test proposed in revision 1.19. A fixed Gaussian covariance-scale likelihood-ratio mixture accumulates squared-residual evidence with an anytime guarantee under an explicit conditional Gaussian model. At the same reserved 0.5% budget, fresh synthetic validation raises detection of the prespecified 1.25-times scale error from 125/2,000 for the point gate to 1,774/2,000. Counterexamples show that the statistic neither identifies a unique variance mechanism nor remains valid for arbitrary heavy-tailed noise. The existing joint engine and RRLS remain unchanged pending fresh joint validation.",
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  {
   "version": "1.19",
   "title": "addition",
   "text": "Appendix T gives the point-residual and cumulative-mean checks one shared 1% anytime false-rejection budget. Because the two components use different filtrations, they are not silently averaged into a claimed e-process. A 0.5%/0.5% allocation and event-level union bound provide the stated joint guarantee. Fresh synthetic validation confirms complementary power and exposes severe heavy-tail fragility and weak sensitivity to moderate scale changes. RRLS remains unchanged.",
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  {
   "version": "1.18",
   "title": "addition",
   "text": "Appendix S replaces an unnecessarily known-variance assumption for one bounded task: sequentially testing a prespecified projected Gaussian residual mean. The new scale-invariant e-process permits one fixed unknown positive variance. Its guarantee requires iid Gaussian residuals and scale-invariant stopping information; it is not valid for arbitrary raw-data stopping or arbitrary noise. Fresh synthetic validation, exact rescaling controls, and an independent replay record both its improvement and its missed alternatives. RRLS remains unchanged.",
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  {
   "version": "1.17",
   "title": "addition",
   "text": "Appendix R implements the cumulative Gaussian likelihood-ratio/e-process proposed by revision 1.16. A written martingale argument supplies an anytime false-rejection bound under explicit conditional-normal assumptions. Fresh synthetic validation shows high sensitivity to the targeted persistent shift and also preserves counterexamples: alternating shifts, orthogonal shifts, and variance errors are not reliably handled by this one detector. The earlier point-residual gate remains separate; combining two 1% gates does not produce a 1% joint procedure.",
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  {
   "version": "1.16",
   "title": "addition",
   "text": "Appendix Q addresses the repeated-testing limitation explicitly left open in Appendix O. A separate alpha-spending gate controls ever rejecting a specified correct candidate under a fixed, conditionally calibrated Gaussian model. Fresh synthetic validation and an independent numerical replay expose both reduced false alarms and poor sensitivity to small persistent shifts. No older benchmark is relabeled as new evidence.",
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  {
   "version": "1.15",
   "title": "addition",
   "text": "Appendix P audits the supplied dimensional-future/captured-strand model. It separates sampled coincidence from continuous non-crossing, corrects angular-impulse notation and numerical defects, proves a finite-prefix obstruction to unrestricted generator identification, and adds a positive continuation theorem inside a declared bounded-order recurrence class.",
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  {
   "version": "1.14",
   "title": "correction notice",
   "text": "The previous Theorem 17.1 had incompatible premises: complete deterministic refinement for one fixed transition family is idempotent, so repeated complete refinement cannot yield seven strict stages. Section 17 now replaces that claim with the closure theorem and a valid finite-horizon example. Appendix O adds intervention-relative identifiability, experiment selection, and explicit model rejection. Earlier benchmark records remain historical evidence for their named releases; this revision does not claim to have rerun all earlier engines or independently revalidated every earlier argument.",
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  ]
 },
 "spine": {
  "title": "From projection to evidence",
  "question": "What can an observer's record determine about the richer state behind it, and what must be added, proved or measured before a hidden structure counts as found?",
  "text": "“Truth is not a bit. It is a distance.” Anthony Michael Collado's programme starts from one working idea: what an observer records is a projection of a richer state, and the gap between them can be stated and tested. Between 23 August and 15 October 2026 the idea became closure theorems, relation-lifting solvers, proof certificates, exact chess endgames, and hydrogen, matter and optical observers, gathered in a revisable manuscript. Each line asks what an observation can identify and what must be added. The record keeps its retractions, refuted shortcuts and rejected hypotheses. No Millennium problem is solved, no extra spatial dimension is identified, and none of the 57 current engine records is yet admitted as a new measured physical prediction with the currently supplied evidence.",
  "basis": "editorial",
  "note": "The opening line is Anthony's own: the headline of his journey essay."
 },
 "order": [
  "theory",
  "drct",
  "rrls",
  "rbe",
  "chess",
  "hydrogen",
  "matter",
  "grid",
  "clocks"
 ],
 "timeline": [
  {
   "date": "2026-08-23",
   "event": "Eighteen DRCT manuscripts, v1 to v21, are saved with the v6 transformer stress test; PRNG-tomography and market-state notes are saved the same day.",
   "records": [
    "r-9f79fa0d0806",
    "r-519566f74c0d",
    "r-d4ca6f5515b8",
    "r-370642ea780a",
    "r-0e49c4b376ca"
   ]
  },
  {
   "date": "2026-09-04",
   "event": "Projective Ripple Reality 1.0 formalises observation as a projection of a richer state; Reality Bit Engine supplements v0.11–v0.13 add restricted proofs, a standalone verifier and stated obstructions.",
   "records": [
    "r-7a9c23a3a539",
    "r-1e48abf03e8b",
    "r-a5335a10ec56",
    "r-0aae1663eca5"
   ]
  },
  {
   "date": "2026-09-05",
   "event": "Revision 1.14 retracts the seven-stage refinement theorem after the Rope Tomography Lab 0.2.0 audit: complete deterministic closure is idempotent.",
   "records": [
    "r-068ce17145c0",
    "r-570b32f2f2b6",
    "r-128270b32cd4"
   ]
  },
  {
   "date": "2026-09-05",
   "event": "A pasted note names RRLS; RRLS Studio v0.7–v0.26, the v0.13 audit with its SAT extensions, and engine notes v0.14–v0.20 are saved. The P = NP gate stays closed.",
   "records": [
    "r-fb5c05cfc8ce",
    "r-19549c402f21",
    "r-ed2327e18787",
    "r-089c94a4ecca",
    "r-671b2e89ebc7",
    "r-95573c01bc39"
   ]
  },
  {
   "date": "2026-09-06",
   "event": "RRLS v0.27 is audited and repaired as v0.27.1; v0.28–v0.30 locate the missing operation in polynomial semantic canonicalisation of residual futures.",
   "records": [
    "r-8cae97ff1389",
    "r-49eed9439785",
    "r-65b761028cb7"
   ]
  },
  {
   "date": "2026-09-15",
   "event": "A court-grade audit finds a coherent mathematical framework with an eight-cycle hypothesis, not proven physics; Wallbreaker Protocol P3 defines the unactivated three-qubit P3-R1 pilot.",
   "records": [
    "r-9c556a0548e7",
    "r-ef2aa36ff943",
    "r-d1230f150e39"
   ]
  },
  {
   "date": "2026-09-15",
   "event": "Dimensional Chess C1–C8 and run R1: exact KRK and KQK solutions, and independently verified no-forced-mate results from the initial position.",
   "records": [
    "r-6875140b9128",
    "r-709ba3d90a0c",
    "r-b7e0db547cd6"
   ]
  },
  {
   "date": "2026-09-19",
   "event": "Rotational complexity of matrices: exact Fourier-rotor reconstruction of every benchmark matrix, with rotor count shown to be a basis-dependent measure.",
   "records": [
    "r-350b255f3242"
   ]
  },
  {
   "date": "2026-09-20",
   "event": "Hydrogen Matrix Lab 0.1–0.7, Matter Harmony revisions 1.44–1.58, Element Projection Lab 0.6–0.12 and Fixed Grid String Lab 0.1 are saved; the hydrogen rotor fails its frozen holdout.",
   "records": [
    "r-26ff0912ad26",
    "r-249244afa345",
    "r-7c616040c25f",
    "r-3636ed2ff4b1",
    "r-5d2c11aea25f"
   ]
  },
  {
   "date": "2026-09-20",
   "event": "Manuscript draft 1.70 lists the engines and labs as its computational formalisation and adds an Inversion Theory appendix; audits on 21–22 September reject several of its inferences.",
   "records": [
    "r-8932ff1185c8",
    "r-be3eaac1ae3c",
    "r-2711bdafd755"
   ]
  },
  {
   "date": "2026-09-21",
   "event": "Musical readings of hydrogen and element spectra are tested and not supported; Element Projection Lab 0.13–0.16, Fixed Grid 0.2–0.7 and the Wave–Observer formulation are saved.",
   "records": [
    "r-c69c23892b03",
    "r-435b7200338e",
    "r-a00a6dab1f40",
    "r-441b2e8db915",
    "r-cae4bcf2f553"
   ]
  },
  {
   "date": "2026-09-26",
   "event": "Manuscript 1.97: appendices through CT on coupled gauge–matter checks and on the identifiability of shadows, optical tails and paired references.",
   "records": [
    "r-1d8715c179d2"
   ]
  },
  {
   "date": "2026-09-27",
   "event": "The spectral studio is validated and gains a Yee-grid Maxwell diffraction mode, presented as a demonstration without convergence or experimental agreement.",
   "records": [
    "r-ed0171b0bc6a",
    "r-c300050706ec"
   ]
  },
  {
   "date": "2026-09-30",
   "event": "OCTAVE's eight-observer design review and the GWSN theorem; a saved-artifact collection of 666 project files and 88 release ZIPs is assembled.",
   "records": [
    "r-1b7da66e7aee",
    "r-a1de2c115537",
    "r-996f7bed17ed"
   ]
  },
  {
   "date": "2026-10-01",
   "event": "The OCTAVE school benchmark reports a mean per-bit transfer gain, but every new recurrent checkpoint scores 0/8 exact basic-pulse forecasts.",
   "records": [
    "r-288afeeb8dda"
   ]
  },
  {
   "date": "2026-10-05",
   "event": "A finite observer and nested-clock lab is executed: cosine readout hides rotation direction, and dephasing changes interference without added energy.",
   "records": [
    "r-985850180fe4"
   ]
  },
  {
   "date": "2026-10-06",
   "event": "A computation route and the coupled eight-clock Maxwell execution find an exact ordinary Lorentz counterpart, an identification limit; the handoff snapshot packages manuscript 1.97 unchanged.",
   "records": [
    "r-e2a666a8bde5",
    "r-b3cababe16e2",
    "r-bc9d62d0c36e"
   ]
  },
  {
   "date": "2026-10-15",
   "event": "Manuscript 2.42 and research edition 02: 1,365 software tests pass, and none of the 57 engine records is admitted as a new measured physical prediction.",
   "records": [
    "r-da2ac4d4dbc6",
    "r-art-state-of-the-theory",
    "r-art-measurement"
   ]
  },
  {
   "date": "2026-10-15",
   "event": "Five edition-02 investigations keep their failed gates and name a first physical target: a forward Aharonov–Bohm apparatus prediction scored on newly reserved frames.",
   "records": [
    "r-art-aharonov-bohm",
    "r-art-hubble",
    "r-art-identifiability",
    "r-art-finite-waves",
    "r-art-questions-and-meaning"
   ]
  }
 ],
 "crossThreadLinks": [
  {
   "from": "theory",
   "to": "rbe",
   "why": "The engine describes itself as a C++ implementation of Projective Ripple Reality's computable core, and manuscript 1.97 cites Reality Bit Engine 0.20.0. Journey relationship 'Executable state'.",
   "records": [
    "r-7a9c23a3a539",
    "r-1360ddb369ef",
    "r-1d8715c179d2"
   ]
  },
  {
   "from": "theory",
   "to": "rrls",
   "why": "The court audit's outcome frontier inherits RRLS's projection-collision discipline; revision 1.15 records the v0.27 audit, and 1.97 cites 'RRLS Studio 0.27 audited extension 2'. Journey relationship 'Coordinate language'.",
   "records": [
    "r-9c556a0548e7",
    "r-8cae97ff1389",
    "r-1d8715c179d2"
   ]
  },
  {
   "from": "theory",
   "to": "chess",
   "why": "C1 applies the theory's computational rules to a closed chess universe, and revisions 1.30–1.38 record C1–C8 and the initial-position run in the manuscript.",
   "records": [
    "r-6875140b9128",
    "r-8932ff1185c8"
   ]
  },
  {
   "from": "theory",
   "to": "hydrogen",
   "why": "Revisions 1.40–1.42 and 1.59–1.76 record Hydrogen Matrix and Element Projection Lab releases, and the manuscript lists both labs as its computational formalisation.",
   "records": [
    "r-8932ff1185c8",
    "r-1d8715c179d2",
    "r-bb51103f7acd"
   ]
  },
  {
   "from": "theory",
   "to": "matter",
   "why": "Revisions 1.44–1.58 are the Matter Harmony Lab releases, and revisions 1.48, 1.49 and 1.58 restate the 1.14 closure correction as unchanged.",
   "records": [
    "r-8932ff1185c8",
    "r-a3fce32241d0",
    "r-fa4c581af7dc",
    "r-7c616040c25f"
   ]
  },
  {
   "from": "theory",
   "to": "grid",
   "why": "Revisions 1.43 and 1.77–1.97 record Fixed Grid String Lab releases, whose coupled gauge–matter benchmarks fill the manuscript's later appendices. Journey relationship 'Coupled dynamics'.",
   "records": [
    "r-1d8715c179d2",
    "r-88d96126ec54",
    "r-f2f7bd9d9599"
   ]
  },
  {
   "from": "theory",
   "to": "clocks",
   "why": "The 6 October handoff packages manuscript 1.97 unchanged beside the eight-clock calculations, and edition 02 reviews the five investigations against manuscript 2.42. Journey relationships 'October research continuation'.",
   "records": [
    "r-d919382c7223",
    "r-art-state-of-the-theory"
   ]
  },
  {
   "from": "drct",
   "to": "theory",
   "why": "DRCT v1 redefines D0 as zero unresolved predictive information; the court audit and P3's decoder-loss wall restate that closure idea without citing DRCT.",
   "records": [
    "r-9f79fa0d0806",
    "r-9c556a0548e7",
    "r-ef2aa36ff943"
   ]
  },
  {
   "from": "matter",
   "to": "drct",
   "why": "Both find that reproducing an observable does not identify its hidden description: Matter Harmony's generator gauge family and DRCT v11's identifiable subspaces. Journey relationship 'Equivalent observations'.",
   "records": [
    "r-a19a33573c53",
    "r-8f54278510af"
   ]
  },
  {
   "from": "chess",
   "to": "drct",
   "why": "Both use complete finite domains, all 399,112 KRK positions and all 780 transformer contexts, so equality and failure are countable without settling unrestricted systems. Journey relationship 'Finite reference domains'.",
   "records": [
    "r-6875140b9128",
    "r-d4ca6f5515b8"
   ]
  },
  {
   "from": "rrls",
   "to": "rbe",
   "why": "The RE SAT laboratory and the attachment audit are companions to both lines; the engine's SAT prize lab rejects a false near-satisfaction stopping rule. Journey relationship 'Declared operators'.",
   "records": [
    "r-2f8e1d2a9608",
    "r-ee0f8cf32e7f",
    "r-1360ddb369ef"
   ]
  },
  {
   "from": "rrls",
   "to": "chess",
   "why": "Both keep the proof gate closed until search is certified: RRLS counts any branching as open, and chess run R1 finds ordering is not the wallbreaker. Journey: 'Relations to bounded proof'.",
   "records": [
    "r-ed2327e18787",
    "r-b7e0db547cd6"
   ]
  },
  {
   "from": "rrls",
   "to": "drct",
   "why": "Both synthesise descriptions with exact checks: RRLS lifts relations until residuals close, and DRCT invents morphism classes while stating the prior it still supplies. Journey: 'A language with a cost'.",
   "records": [
    "r-fb5c05cfc8ce",
    "r-519566f74c0d"
   ]
  },
  {
   "from": "hydrogen",
   "to": "grid",
   "why": "Both compute ordinary electric-dipole hydrogen physics (Hydrogen Matrix Lab 0.6 selection rules; Fixed Grid 0.3.0's frozen 1S→2P benchmark); neither derives it from extra dimensions. Journey: 'State to observable'.",
   "records": [
    "r-12135221929f",
    "r-1c5e7fdacf87"
   ]
  },
  {
   "from": "hydrogen",
   "to": "matter",
   "why": "Both show observables losing identifying information: Element Projection Lab 0.15's homometric crystal pair and Matter Harmony's gauge family that changes the generator but not the output. Journey: 'Inverse ambiguity'.",
   "records": [
    "r-a00a6dab1f40",
    "r-a19a33573c53"
   ]
  },
  {
   "from": "matter",
   "to": "hydrogen",
   "why": "In the manuscript, revisions 1.54–1.58 test Matter Harmony observers against hydrogen spectra, and revisions 1.59–1.61 return to Hydrogen Matrix Lab 0.6–0.8.",
   "records": [
    "r-03ea1efe29ee",
    "r-7c616040c25f",
    "r-12135221929f"
   ]
  },
  {
   "from": "grid",
   "to": "clocks",
   "why": "Both treat calibration as part of the claim: Fixed Grid 0.22 shows an uncalibrated path mismatch can mimic a material delay, and edition 02 binds calibration into measurement admission.",
   "records": [
    "r-f2f7bd9d9599",
    "r-art-measurement"
   ]
  },
  {
   "from": "drct",
   "to": "clocks",
   "why": "DRCT's anonymous concept classes and GWSN's proposed semantic states are neighbouring ways to ask how a representation carries meaning; no implementation transfer is claimed. Journey: 'Anonymous concepts'.",
   "records": [
    "r-519566f74c0d",
    "r-a1de2c115537"
   ]
  }
 ],
 "ledger": [
  {
   "record": "r-1e48abf03e8b",
   "kind": "failed-attempt",
   "what": "The route proving the Lagarias inequality via the true bound σ(n) ≤ nH_n fails: the required residual is already negative at n = 12. Kept as a frozen obstruction.",
   "quote": "That refutes this sufficient-bound route; it does not refute (R).",
   "cluster": "rrls-proofs",
   "n": 1
  },
  {
   "record": "r-1e48abf03e8b",
   "kind": "negative-result",
   "what": "Two tempting Navier–Stokes estimates disproved: energy alone does not bound enstrophy, and no fixed weighted energy–enstrophy sum is universally decreasing.",
   "quote": "The following results disprove proposed sufficient estimates; neither is a breakdown example.",
   "cluster": "rrls-proofs",
   "n": 2
  },
  {
   "record": "r-0aae1663eca5",
   "kind": "negative-result",
   "what": "The natural all-integer extension of the two-prime proof, using any fixed constant below γ, fails at infinitely many integers (Gronwall).",
   "quote": "For every fixed \\(c<\\gamma\\), the inequality \\(\\sigma(n)\\le L_c(n)\\) fails at infinitely many integers.",
   "cluster": "rrls-proofs",
   "n": 3
  },
  {
   "record": "r-0aae1663eca5",
   "kind": "negative-result",
   "what": "An exact one-way SAT summarisation strategy needs 2^n distinguishable summaries; the fixed-capacity route fails, though this is not a SAT lower bound.",
   "quote": "Exact summaries preserving every continuation need enough distinguishable states; a particular fixed-capacity route fails",
   "cluster": "rrls-proofs",
   "n": 4
  },
  {
   "record": "r-0aae1663eca5",
   "kind": "negative-result",
   "what": "Every positive-order homogeneous Sobolev quadratic energy fails universal monotonicity, ruling out that whole family of fluid estimates.",
   "quote": "Every positive-order homogeneous Sobolev quadratic energy fails universal monotonicity; a general amplitude argument explains why",
   "cluster": "rrls-proofs",
   "n": 5
  },
  {
   "record": "r-fde8fc6a803b",
   "kind": "correction",
   "what": "A hand calculation of the example's nonlinear coefficient left out a term; the independent convolution test caught it, and the rejected value is kept in the report.",
   "quote": "The independent convolution test first rejected an incomplete hand calculation of the example's coefficient: its third component was written as zero, omitting the \\(-i\\varepsilon^2/4\\) term.",
   "cluster": "rrls-proofs",
   "n": 6
  },
  {
   "record": "r-b4a0c581b998",
   "kind": "negative-result",
   "what": "Two shortcut certificate rules refuted with exact counterexamples: endpoint-only polynomial maxima, and residuals computed on retained modes only.",
   "quote": "That exactly refutes the proposed endpoint-only maximum bound.",
   "cluster": "rrls-proofs",
   "n": 7
  },
  {
   "record": "r-b4a0c581b998",
   "kind": "failed-attempt",
   "what": "The coarse refinement step (degree 1, 8 intervals) left the error envelope unresolved; it is kept and not read as blow-up.",
   "quote": "The failed coarse bound is retained. It is not a blowup result.",
   "cluster": "rrls-proofs",
   "n": 8
  },
  {
   "record": "r-d20df8c9f37b",
   "kind": "failed-attempt",
   "what": "The ε = 0.5 input stayed unresolved: the envelope failed on the second interval. Frozen as the next target.",
   "quote": "Failure of a sufficient estimate is not a blowup observation or proof that the input is nonsmooth.",
   "cluster": "rrls-proofs",
   "n": 9
  },
  {
   "record": "r-d20df8c9f37b",
   "kind": "negative-result",
   "what": "Using the small-V branch of the scalar bound for every V is false (counterexample D=1, V=2, x=2). Also, the v0.15 exact-shear certificate fails on this input.",
   "quote": "This refutes the scalar shortcut, not global fluid smoothness.",
   "cluster": "rrls-proofs",
   "n": 10
  },
  {
   "record": "r-8cbc00e49b56",
   "kind": "repair",
   "what": "The frozen ε = 0.5 failure from v0.17 is certified using residual-directed mode selection (32 modes) and local error caps; the fixed-cap policies stay recorded as unresolved.",
   "quote": "The formerly unresolved input is now certified",
   "cluster": "rrls-proofs",
   "n": 11
  },
  {
   "record": "r-8cbc00e49b56",
   "kind": "correction",
   "what": "A development test showed a false expectation that every selected mode stays active; at low precision a mode can round to zero. The contract was corrected and the observation kept.",
   "quote": "A development test exposed a separate false expectation: at lower precision, a selected mode can round to the zero polynomial.",
   "cluster": "rrls-proofs",
   "n": 12
  },
  {
   "record": "r-ee0f8cf32e7f",
   "kind": "negative-result",
   "what": "Stronger claims in the audited attachment refuted: basis changes cannot lower algebraic degree, adding higher-degree ANF terms can worsen the fit, and small-relations-first ordering is not always linear.",
   "quote": "This refutes monotonic improvement for this truncation rule.",
   "cluster": "rrls-proofs",
   "n": 13
  },
  {
   "record": "r-ee0f8cf32e7f",
   "kind": "correction",
   "what": "Lists defects in the audited code that must be repaired before benchmarking: timer started before warm-up, exact=True set without reconstruction, unvalidated inputs.",
   "quote": "The original snippet also needs these repairs before treating its output as a trustworthy benchmark:",
   "cluster": "rrls-proofs",
   "n": 14
  },
  {
   "record": "r-089c94a4ecca",
   "kind": "correction",
   "what": "Corrects the proof criterion: zero branch nodes does not show polynomial time, and an upper-bound recurrence is not a lower bound.",
   "quote": "Zero branch nodes is neither necessary nor sufficient for polynomial time.",
   "cluster": "rrls-proofs",
   "n": 15
  },
  {
   "record": "r-089c94a4ecca",
   "kind": "repair",
   "what": "A v0.13 merge defect overwrote ancestor assignments and produced an invalid SAT assignment on a 40-variable input; fixed by restricting returned models to subproblem variables.",
   "quote": "The merge defect also appeared on a complete 40-variable test input",
   "cluster": "rrls-proofs",
   "n": 16
  },
  {
   "record": "r-089c94a4ecca",
   "kind": "negative-result",
   "what": "Several families became slower after refinement; random and two-relation cases kept their branch counts.",
   "quote": "The change should not be advertised as a general performance improvement.",
   "cluster": "rrls-proofs",
   "n": 17
  },
  {
   "record": "r-9be766ae72f6",
   "kind": "negative-result",
   "what": "By Haken's resolution lower bound, the native RUP-only learning route cannot always give polynomial-size refutations on pigeonhole formulas.",
   "quote": "Consequently, a native RUP-only route cannot always emit polynomial-size refutations on this family.",
   "cluster": "rrls-proofs",
   "n": 18
  },
  {
   "record": "r-9be766ae72f6",
   "kind": "negative-result",
   "what": "Resuming from checked prefixes cost more work than a single pass on the measured core; the lift helped decisions on three inputs and hurt two.",
   "quote": "Restarting was sound and persistent, but was more work here.",
   "cluster": "rrls-proofs",
   "n": 19
  },
  {
   "record": "r-90009b9e2f31",
   "kind": "negative-result",
   "what": "A parity-only lift cannot improve at any degree once the parity system has a Boolean solution.",
   "quote": "In the GF(2) setting, no amount of monomial multiplication can refute a system already having a Boolean solution.",
   "cluster": "rrls-proofs",
   "n": 20
  },
  {
   "record": "r-01881573f5be",
   "kind": "failed-attempt",
   "what": "The first invariant catalogue failed on a checked 45-variable pair (a three-colourable graph versus the Petersen line graph); higher Gram traces were added.",
   "quote": "The first catalogue failed on a checked 45-variable pair.",
   "cluster": "rrls-proofs",
   "n": 21
  },
  {
   "record": "r-01881573f5be",
   "kind": "negative-result",
   "what": "After refinement, a fresh 51-variable SAT/UNSAT pair shares the entire fingerprint, so no decoder of that fingerprint can decide SAT.",
   "quote": "The fresh result shows why that stopping condition cannot be a proof gate for P=NP.",
   "cluster": "rrls-proofs",
   "n": 22
  },
  {
   "record": "r-01881573f5be",
   "kind": "failed-attempt",
   "what": "Generic labelling of a fresh parity formula exceeded the RUP checker's work cap; the partial run was kept and labelling switched to exact XOR certificates.",
   "quote": "The first generic labeling attempt on `fresh-parity-11-00-1` exceeded the RUP checker's 20,000,000-work cap.",
   "cluster": "rrls-proofs",
   "n": 23
  },
  {
   "record": "r-01881573f5be",
   "kind": "correction",
   "what": "A feature-replay check found a tuple versus JSON-array key mismatch; the keys were fixed and serialised values did not change. Selector metadata was also corrected.",
   "quote": "A feature-replay check also exposed an in-memory tuple versus saved JSON-array mismatch in histogram keys.",
   "cluster": "rrls-proofs",
   "n": 24
  },
  {
   "record": "r-2f8e1d2a9608",
   "kind": "negative-result",
   "what": "The three-state OR relation cannot be an affine projection of any linear system, ruling out exact linearisation with affine decoding. Ordinary 3-SAT cases showed zero affine rank.",
   "quote": "This rules out one proposed universal route: exact solution-preserving linearization with affine decoding.",
   "cluster": "rrls-proofs",
   "n": 25
  },
  {
   "record": "r-2f8e1d2a9608",
   "kind": "failed-attempt",
   "what": "Affine substitution blew up the residual scope (3 to 20) and exceeded the table budget; this prompted the fallback dispatcher.",
   "quote": "The substitution-expansion family demonstrates why eliminating variables is not automatically an improvement.",
   "cluster": "rrls-proofs",
   "n": 26
  },
  {
   "record": "r-3abfc6df0612",
   "kind": "failed-attempt",
   "what": "The first routing feature scheme gave the same value to inputs needing different routes; it was kept (round 1) and replaced by a density feature.",
   "quote": "This is a direct information-loss obstruction for that selector, not an obstruction for SAT itself.",
   "cluster": "rrls-proofs",
   "n": 27
  },
  {
   "record": "r-d9f96ddde453",
   "kind": "repair",
   "what": "Closes the earlier limitation that residual model counts were not independently certified, by full-CNF enumeration within a declared budget.",
   "quote": "The new `verify_decision.py` closes that earlier reporting limitation.",
   "cluster": "rrls-proofs",
   "n": 28
  },
  {
   "record": "r-d9f96ddde453",
   "kind": "negative-result",
   "what": "Ordinary CNF cases gained nothing; their aggregate median regressed.",
   "quote": "Ordinary cases use the unchanged DPLL proof path and show no consistent gain; their aggregate median regressed in this run.",
   "cluster": "rrls-proofs",
   "n": 29
  },
  {
   "record": "r-d9f96ddde453",
   "kind": "correction",
   "what": "An indexing error stopped the first run during input generation; it was fixed before any case was solved or timed, and the fix is recorded.",
   "quote": "The first invocation stopped during input generation because of an indexing error; it was corrected before any case was solved or timed",
   "cluster": "rrls-proofs",
   "n": 30
  },
  {
   "record": "r-95b0a3b2973e",
   "kind": "negative-result",
   "what": "The OS-entropy control expanded under the learned dictionary; RRLS should keep such regions raw.",
   "quote": "The high-entropy control expands rather than compresses.",
   "cluster": "rrls-releases",
   "n": 31
  },
  {
   "record": "r-e4a93778a3dd",
   "kind": "repair",
   "what": "A 52.88 MB run first compressed to 0.563x (worse than raw); the cause was found and fixed with hash-shuffled training order.",
   "quote": "The failure was vocabulary starvation.",
   "cluster": "rrls-releases",
   "n": 32
  },
  {
   "record": "r-e4a93778a3dd",
   "kind": "retraction",
   "what": "A cross-corpus transfer test was invalidated after the new digest gate found 1,200/1,200 identical page bodies.",
   "quote": "and invalidated the experiment. After changing both hosts and page bodies, overlap was zero and frozen transfer still compressed, but below zlib.",
   "cluster": "rrls-releases",
   "n": 33
  },
  {
   "record": "r-e4a93778a3dd",
   "kind": "negative-result",
   "what": "Even after the fix, RRLS lost to zlib on pure compression.",
   "quote": "RRLS still loses to zlib on pure compression. That is a useful negative result.",
   "cluster": "rrls-releases",
   "n": 34
  },
  {
   "record": "r-e4a93778a3dd",
   "kind": "negative-result",
   "what": "On 48.17 MiB of real system data, zlib beat both RRLS and the RRLS+zlib hybrid.",
   "quote": "Again, standard compression wins. This rejects the hypothesis that the current phrase vocabulary is already a superior general compressor.",
   "cluster": "rrls-releases",
   "n": 35
  },
  {
   "record": "r-b130d67684d1",
   "kind": "retraction",
   "what": "Earlier notebook predictive-MDL results of about 2x were withdrawn because a symbol-dependent promotion rule broke normalisation.",
   "quote": "Those earlier ~2× predictive-MDL results were invalid and are explicitly discarded.",
   "cluster": "rrls-releases",
   "n": 36
  },
  {
   "record": "r-b130d67684d1",
   "kind": "negative-result",
   "what": "Packed integer transition keys were slower than tuple keys and were reverted.",
   "quote": "The optimization was reverted.",
   "cluster": "rrls-releases",
   "n": 37
  },
  {
   "record": "r-b130d67684d1",
   "kind": "negative-result",
   "what": "Entropy-selected coordinate rotations were rejected: low byte entropy did not mean cheap phrase geometry.",
   "quote": "Although transformed views won a minority of individual blocks, they destroyed global phrase reuse",
   "cluster": "rrls-releases",
   "n": 38
  },
  {
   "record": "r-b130d67684d1",
   "kind": "negative-result",
   "what": "Eight unsupervised cluster vocabularies did worse than one global vocabulary (1.084x vs 1.165x).",
   "quote": "Cross-domain sharing was more valuable than specialization on this corpus.",
   "cluster": "rrls-releases",
   "n": 39
  },
  {
   "record": "r-b130d67684d1",
   "kind": "negative-result",
   "what": "The canonical equality-pattern quotient was rejected as a blanket transform.",
   "quote": "The transform erased useful literal structure faster than it created transferable relational structure.",
   "cluster": "rrls-releases",
   "n": 40
  },
  {
   "record": "r-233707f9fb01",
   "kind": "correction",
   "what": "Earlier bundles shipped newer engines behind a GUI still labelled v0.7; v0.12 fixed the labels and launcher.",
   "quote": "Earlier bundles contained newer engine modules but the classic number-pattern GUI still",
   "cluster": "rrls-releases",
   "n": 41
  },
  {
   "record": "r-089c94a4ecca",
   "kind": "correction",
   "what": "An external audit of v0.13 (r-ed2327e18787) found that subsolver models could overwrite ancestor assignments, producing an invalid SAT witness that the final check rejected; repaired.",
   "quote": "Some subsolvers returned assignments for every numeric identifier up to their largest variable, including variables absent from their residual.",
   "cluster": "rrls-releases",
   "n": 42
  },
  {
   "record": "r-ed2327e18787",
   "kind": "negative-result",
   "what": "After every exact reduction, random 3-SAT still branched; the proof gate stayed closed.",
   "quote": "General random 3-SAT still generated irreducible cores and branch nodes after all current exact reductions.",
   "cluster": "rrls-releases",
   "n": 43
  },
  {
   "record": "r-c0c17efdaef1",
   "kind": "failed-attempt",
   "what": "Lifting GF(2) exact-cover systems to degree-2 and degree-3 monomials rejected no more instances than degree 1.",
   "quote": "So merely adding more coordinates is not enough. A useful lift must add a genuinely new invariant or global relation, not redundant copies of the same algebra.",
   "cluster": "rrls-releases",
   "n": 44
  },
  {
   "record": "r-cdeb9ec890f8",
   "kind": "negative-result",
   "what": "Local zero-frame rotation always works, but agreeing on overlaps is exactly the original SAT problem.",
   "quote": "The difficulty is therefore not destroyed by local zeroing.",
   "cluster": "rrls-releases",
   "n": 45
  },
  {
   "record": "r-080f17275b94",
   "kind": "negative-result",
   "what": "Known lower bounds rule out OBDD (and DNNF) as a universal compact tractable target.",
   "quote": "Therefore OBDD cannot be RRLS's universal target language.",
   "cluster": "rrls-releases",
   "n": 46
  },
  {
   "record": "r-25cddfb8e1cd",
   "kind": "negative-result",
   "what": "RRLS's relation-naming vocabulary matches extension variables in Extended Resolution/Frege, so it is not a new missing link by itself.",
   "quote": "Proof complexity has already pushed this abstraction very far.",
   "cluster": "rrls-releases",
   "n": 47
  },
  {
   "record": "r-c2959fe23319",
   "kind": "negative-result",
   "what": "Any formula can be lifted to one clean output coordinate; emptiness of the solution fibre remains the hard step.",
   "quote": "Making the defining equation geometrically simple is not enough.",
   "cluster": "rrls-releases",
   "n": 48
  },
  {
   "record": "r-11c0d538ba77",
   "kind": "correction",
   "what": "Proves invertible affine rotations cannot lower Nullstellensatz refutation degree, correcting an earlier RRLS intuition.",
   "quote": "This is a significant correction to the earlier RRLS intuition. Linear coordinate rotation can reveal sparse formulas such as parity, but it cannot lower this particular algebraic proof-degree invariant.",
   "cluster": "rrls-releases",
   "n": 49
  },
  {
   "record": "r-11c0d538ba77",
   "kind": "failed-attempt",
   "what": "Single Toffoli-style nonlinear coordinate maps did not lower refutation degree on four hard instances.",
   "quote": "No tested single-Toffoli map lowered the minimum refutation degree by one for the four chosen hard instances.",
   "cluster": "rrls-releases",
   "n": 50
  },
  {
   "record": "r-399db0176f55",
   "kind": "negative-result",
   "what": "Canonical basis recognisers compiled 0 of 80 phase-transition random 3-SAT formulas.",
   "quote": "They did not force general formulas into a convenient language.",
   "cluster": "rrls-releases",
   "n": 51
  },
  {
   "record": "r-18ea45e87f1a",
   "kind": "negative-result",
   "what": "Random 3-SAT fell in the wide-structure, no-recognised-algebra quadrant; none resolved.",
   "quote": "every tested instance stayed UNKNOWN.",
   "cluster": "rrls-releases",
   "n": 52
  },
  {
   "record": "r-58da85d88c36",
   "kind": "negative-result",
   "what": "On a random 3-SAT control, the temporal-resonance summary did worse than plain response histograms.",
   "quote": "The compact resonance summary was worse (76.6%).",
   "cluster": "rrls-releases",
   "n": 53
  },
  {
   "record": "r-39d5b1d524f9",
   "kind": "negative-result",
   "what": "Collision-coordinate synchronisation still reached about a million states near n=18-20; frontier peaks fitted an exponential.",
   "quote": "collision identity is real compression, but insufficient.",
   "cluster": "rrls-releases",
   "n": 54
  },
  {
   "record": "r-defbb8d6fa7e",
   "kind": "correction",
   "what": "v0.25's future-mode counts (r-39d5b1d524f9) were syntactic and over-counted true semantic futures.",
   "quote": "Major conceptual correction: v0.25 future modes were syntactic",
   "cluster": "rrls-releases",
   "n": 55
  },
  {
   "record": "r-defbb8d6fa7e",
   "kind": "repair",
   "what": "pandas float promotion in CSV exports could silently lose exact units; tagged exact JSON adopted as the canonical proof artefact.",
   "quote": "Real bug found: pandas float promotion can corrupt exported counts",
   "cluster": "rrls-releases",
   "n": 56
  },
  {
   "record": "r-defbb8d6fa7e",
   "kind": "repair",
   "what": "Malformed CNF inputs (literal 0, negative or too-small n) are now rejected.",
   "quote": "Malformed coordinate systems can no longer silently enter an exact run.",
   "cluster": "rrls-releases",
   "n": 57
  },
  {
   "record": "r-4d0f85755df4",
   "kind": "negative-result",
   "what": "In random modular worlds, exact collision became rarer as dimensions were added, not inevitable.",
   "quote": "This is one of the most important negative results in v0.27.",
   "cluster": "rrls-releases",
   "n": 58
  },
  {
   "record": "r-4d0f85755df4",
   "kind": "negative-result",
   "what": "In the toy damping model, capture does not guarantee full wrapping (ravel).",
   "quote": "This directly rejects the stronger assumption that every non-crossing contact must inevitably zip completely.",
   "cluster": "rrls-releases",
   "n": 59
  },
  {
   "record": "r-8cae97ff1389",
   "kind": "repair",
   "what": "Four reproduced defects fixed: weak-damping formulas, signed starting tick, an unchecking collision verifier, and impulse on separating contact.",
   "quote": "This release repairs concrete source defects and adds a bounded generator-identification module.",
   "cluster": "rrls-releases",
   "n": 60
  },
  {
   "record": "r-8cae97ff1389",
   "kind": "correction",
   "what": "The attachment multiplied angular impulse by an extra time interval; corrected to delta L = r x J.",
   "quote": "The extra time factor must not be applied to angular impulse.",
   "cluster": "rrls-releases",
   "n": 61
  },
  {
   "record": "r-8cae97ff1389",
   "kind": "correction",
   "what": "The capture layer is integer-tick point coincidence and cannot establish continuous non-crossing.",
   "quote": "Agreement between two sampled-time implementations cannot establish that different physical specification.",
   "cluster": "rrls-releases",
   "n": 62
  },
  {
   "record": "r-49eed9439785",
   "kind": "correction",
   "what": "A first draft ranked a universal 'smallest generator' by comparing incomparable route-local counts; the comparison was disabled.",
   "quote": "The first draft incorrectly used those route-local counts to crown a universal",
   "cluster": "rrls-releases",
   "n": 63
  },
  {
   "record": "r-49eed9439785",
   "kind": "negative-result",
   "what": "The minimised 30-clause 'hard' formula fell to a width-9 cap; it is a budget counterexample, not a lower bound.",
   "quote": "Increasing the structural width cap to 9 solves it SAT almost immediately",
   "cluster": "rrls-releases",
   "n": 64
  },
  {
   "record": "r-b109c92b746e",
   "kind": "negative-result",
   "what": "The anchored-polynomial representation needs exponentially many monomials on a connected width-2 family.",
   "quote": "This is a rigorous exponential lower bound for this representation on a connected 3-CNF family.",
   "cluster": "rrls-releases",
   "n": 65
  },
  {
   "record": "r-b109c92b746e",
   "kind": "failed-attempt",
   "what": "Logarithmic-width elimination caps (c=1,2,3) resolved no random 3-SAT control.",
   "quote": "No tested phase-transition random-3SAT instance resolved through these logarithmic-width caps.",
   "cluster": "rrls-releases",
   "n": 66
  },
  {
   "record": "r-b109c92b746e",
   "kind": "failed-attempt",
   "what": "Merging f with NOT f (signed future quotient) left peak semantic width unchanged.",
   "quote": "This exact shortcut does not solve the observed future-width wall.",
   "cluster": "rrls-releases",
   "n": 67
  },
  {
   "record": "r-04183c7d3acc",
   "kind": "negative-result",
   "what": "A tiny final canonical function did not mean cheap canonicalisation; direct ROBDD compilation hit its node cap on n>=36 controls.",
   "quote": "Full-formula direct ROBDD compilation with exact garbage collection still hits a 100,000-live-node cap on the tested generic n>=36 random-3SAT controls.",
   "cluster": "rrls-releases",
   "n": 68
  },
  {
   "record": "r-65b761028cb7",
   "kind": "negative-result",
   "what": "An opposite linear probe adds no rank (17/17 matrices); mirrored linear forcing adds no information.",
   "quote": "Crucial negative result: opposite linear force does not double information",
   "cluster": "rrls-releases",
   "n": 69
  },
  {
   "record": "r-65b761028cb7",
   "kind": "negative-result",
   "what": "Local phase gauge reduced hard residuals only 1.03x-1.55x against far larger semantic collapse.",
   "quote": "Phase normalization explains only a fraction of the semantic redundancy.",
   "cluster": "rrls-releases",
   "n": 70
  },
  {
   "record": "r-9f79fa0d0806",
   "kind": "negative-result",
   "what": "Theorem 12: in some deterministic systems (the bit shift observed at one site) no amount of observed history repairs the projection; genuinely new observables are required.",
   "quote": "There are deterministic systems for which no amount of observed history repairs the projection.",
   "cluster": "drct-p3",
   "n": 71
  },
  {
   "record": "r-b590d28cd189",
   "kind": "negative-result",
   "what": "Passive data cannot certify global closure; empirical stabilisation of the inferred state count is evidence, not proof.",
   "quote": "No finite passive corpus can generally prove that an unseen continuation or hidden state does not exist.",
   "cluster": "drct-p3",
   "n": 72
  },
  {
   "record": "r-ab7a8225476b",
   "kind": "negative-result",
   "what": "A finite-sample score improvement from a derived feature does not show genuine new information; model-class gain is separated from information gain.",
   "quote": "A derived feature \\(Q=g(Z)\\) can improve a weak model's finite-sample score even though its true conditional mutual information is zero.",
   "cluster": "drct-p3",
   "n": 73
  },
  {
   "record": "r-d4ca6f5515b8",
   "kind": "negative-result",
   "what": "An exhaustive 780-context black-box reconstruction clones the function exactly, but a head-permuted model with different weights is functionally identical, so logits cannot identify the weights.",
   "quote": "This demonstrates why black-box behavior cannot uniquely identify raw internal weights without quotienting parameter symmetries.",
   "cluster": "drct-p3",
   "n": 74
  },
  {
   "record": "r-b6069be05c7f",
   "kind": "negative-result",
   "what": "Exact parameter recovery needs module-level access that hosted LLM APIs do not provide; the result is about sufficient access, not real APIs.",
   "quote": "This is not a claim that ordinary hosted LLM APIs expose module tomography. They do not. It is a theorem about sufficient experimental access.",
   "cluster": "drct-p3",
   "n": 75
  },
  {
   "record": "r-8f54278510af",
   "kind": "negative-result",
   "what": "Operator values on hidden directions never reached by the input map are undetermined by any experiment through that interface.",
   "quote": "Values outside the reachable subspace are not determined by the experiment.",
   "cluster": "drct-p3",
   "n": 76
  },
  {
   "record": "r-9a6ff68abec1",
   "kind": "negative-result",
   "what": "Theorem 36: if all allowed experiments agree on every surviving hypothesis, no adaptive sequence can separate them; the experimental language must be enlarged.",
   "quote": "If every allowed experiment has the same outcome for every surviving hypothesis, then no adaptive sequence of those experiments can distinguish the survivors.",
   "cluster": "drct-p3",
   "n": 77
  },
  {
   "record": "r-2aeab23576cd",
   "kind": "negative-result",
   "what": "The over-flexible independent-relabelling rule wrongly merges an isotope trap that is not in the true concept orbit; the learned shared rule rejects it.",
   "quote": "It is an **isotope** of the concept, so the fully independent transformation rule merges it.",
   "cluster": "drct-p3",
   "n": 78
  },
  {
   "record": "r-ef2aa36ff943",
   "kind": "negative-result",
   "what": "Wall W10 (finite-data extension) is declared unbreakable in unrestricted form; a finite-context collision has observed distance 0 and unseen distance 0.8.",
   "quote": "W10 is a logical boundary, not an engineering inconvenience. No finite dataset proves an unrestricted law on untested contexts.",
   "cluster": "drct-p3",
   "n": 79
  },
  {
   "record": "r-ef2aa36ff943",
   "kind": "negative-result",
   "what": "In synthetic controls, apparent predictors from apparatus memory and remote signalling vanish once the ordinary cause enters the context.",
   "quote": "Naive crossing disappears when ordinary memory enters the context",
   "cluster": "drct-p3",
   "n": 80
  },
  {
   "record": "r-ef2aa36ff943",
   "kind": "negative-result",
   "what": "No wall-breaking physical observation exists; P3-R1 moves W1-W5 to an executable boundary only.",
   "quote": "Therefore P3-R1 advances W1–W5 from a general standard to an executable measurement boundary but does not physically break them.",
   "cluster": "drct-p3",
   "n": 81
  },
  {
   "record": "r-d1230f150e39",
   "kind": "negative-result",
   "what": "No IBM QPU job was run: no credentials, backend, calibration or outcome existed, so the package holds no physical evidence.",
   "quote": "No credentials, accessible backend, calibration record, or QPU outcome was supplied",
   "cluster": "drct-p3",
   "n": 82
  },
  {
   "record": "r-c94337709c96",
   "kind": "negative-result",
   "what": "The 256-trial pilot is stated to be underpowered for small effects, so even a clean run could not be a discovery claim.",
   "quote": "A 256-trial pilot is not powered for a small new-physics effect.",
   "cluster": "drct-p3",
   "n": 83
  },
  {
   "record": "r-068ce17145c0",
   "kind": "retraction",
   "what": "Theorem 17.1 of the previous paper (seven strict successive coarsest refinements) is withdrawn: its premises are incompatible because complete closure is idempotent. A finite-horizon construction replaces it, and seven is shown to be a chosen register size, not a theorem about dimensions.",
   "quote": "The old conditional statement had no instance satisfying all its premises. It consequently supplied no evidence for a seven-stage physical hierarchy.",
   "cluster": "matter-revisions",
   "n": 84
  },
  {
   "record": "r-068ce17145c0",
   "kind": "correction",
   "what": "A unit test wrongly required the 0.5 Hz probe when 1.5 Hz is equally optimal; the test expectation was corrected without touching selector, data or protocol.",
   "quote": "A first test incorrectly required 0.5 Hz instead of allowing equally optimal 1.5 Hz; that expectation was corrected without changing the selector, scored observations, or protocol.",
   "cluster": "matter-revisions",
   "n": 85
  },
  {
   "record": "r-068ce17145c0",
   "kind": "negative-result",
   "what": "Missing-model control: in all 2,000 trials one candidate received over 99% posterior while the absolute check rejected both, so relative probability alone can pick the less wrong model.",
   "quote": "High relative probability can identify the less wrong candidate.",
   "cluster": "matter-revisions",
   "n": 86
  },
  {
   "record": "r-a76f54a6d077",
   "kind": "negative-result",
   "what": "The same Wiener coordinate does not order fusion temperatures, and Ag and Pd share a coarse signature yet differ 6.470-fold in resistivity.",
   "quote": "The elemental control is also negative.",
   "cluster": "matter-revisions",
   "n": 87
  },
  {
   "record": "r-565c4b7a0100",
   "kind": "negative-result",
   "what": "The topology model that improves boiling fails badly on fusion (n-heptane predicted 410.46 K versus 182.6 K). The failure is kept without clipping or rescue fitting.",
   "quote": "The same representation fails on fusion: MAE rises from 27.574 K to 135.934 K.",
   "cluster": "matter-revisions",
   "n": 88
  },
  {
   "record": "r-1dcee8467de9",
   "kind": "correction",
   "what": "Exact decoding of temperatures into latent rotation frequencies is shown to be tautological: shuffled labels decode equally exactly, hidden-plane rotations are invisible, and fixed ticks alias frequencies.",
   "quote": "The key correction is identifiability.",
   "cluster": "matter-revisions",
   "n": 89
  },
  {
   "record": "r-876994ae70a5",
   "kind": "negative-result",
   "what": "In the water model an uncoupled hidden rotation produces exactly zero visible motion, and integer-tick aliases remain exact.",
   "quote": "Therefore neither a moving picture nor fixed samples uniquely identify continuous hidden rotations.",
   "cluster": "matter-revisions",
   "n": 90
  },
  {
   "record": "r-a3fce32241d0",
   "kind": "negative-result",
   "what": "Two microscopically different 64-molecule dipole histories give an identical polarisation trace (rank-3 observation, 189-dimensional kernel).",
   "quote": "Therefore a perfect polarization trace still does not reconstruct a unique molecular movie.",
   "cluster": "matter-revisions",
   "n": 91
  },
  {
   "record": "r-fa4c581af7dc",
   "kind": "correction",
   "what": "Metamer pair: two spectra 0.709286 apart give the same XYZ response. The rendered movie transports intensity, not phase, so it is not a hologram.",
   "quote": "Human vision is not a universal measuring instrument.",
   "cluster": "matter-revisions",
   "n": 92
  },
  {
   "record": "r-7ba09023fac2",
   "kind": "correction",
   "what": "The 60 fps display rate is explicitly not a biological clock, and one bubble tone does not fix bubble radius.",
   "quote": "The correction is equally important: human vision has no single universal frames-per-second limit.",
   "cluster": "matter-revisions",
   "n": 93
  },
  {
   "record": "r-3a2a485fc9f0",
   "kind": "correction",
   "what": "The proposed 'vibrational families' of phase are corrected. The isolated H2O mode vector is identical for solid, liquid and gas controls, and the collective coordinate is continuous with no universal thresholds.",
   "quote": "This corrects the theory: collective coupling, diffusion, temperature, pressure, density, and free energy are candidate state variables.",
   "cluster": "matter-revisions",
   "n": 94
  },
  {
   "record": "r-a19a33573c53",
   "kind": "correction",
   "what": "Three corrections are recorded. Coupling rank is not observability. Known-system observability is not generator identification, since a 101-angle gauge family changes the generator but not the output. Finite exposure lowers recoverable rank.",
   "quote": "Known-system observability is not generator identification.",
   "cluster": "matter-revisions",
   "n": 95
  },
  {
   "record": "r-03ea1efe29ee",
   "kind": "negative-result",
   "what": "The fixed linear five-coordinate observer can carry at most two positive frequencies, so it fails the four-line Balmer gate by two features.",
   "quote": "This is a checked negative result with a useful design consequence.",
   "cluster": "matter-revisions",
   "n": 96
  },
  {
   "record": "r-7aa233486073",
   "kind": "negative-result",
   "what": "Eight latent dimensions are the first to reach four frequencies, but meeting the count predicts nothing about hydrogen.",
   "quote": "Passing that count does not predict hydrogen's wavelengths, intensities, transition rules, or physical dimensionality.",
   "cluster": "matter-revisions",
   "n": 97
  },
  {
   "record": "r-ea8e9ad72c3a",
   "kind": "negative-result",
   "what": "Release 1.3.0 (revision 1.56) found that a Delta2 + Delta4 transition law fits both training lines exactly but predicts the held-out lines worse. The failed term is kept on record.",
   "quote": "The extra term interpolates both training features exactly but increases held-out RMSE from 6.030 to 6.949 ppm.",
   "cluster": "matter-revisions",
   "n": 98
  },
  {
   "record": "r-ea8e9ad72c3a",
   "kind": "negative-result",
   "what": "Release 1.4.0 (revision 1.57) found ordinary QED/nuclear theory fits the H–D 1S–2S shift within 0.310 sigma, and 61 range/coupling pairs fit the residual equally.",
   "quote": "The operator is therefore neither needed by this datum nor identifiable from it; it is not promoted to a dimension.",
   "cluster": "matter-revisions",
   "n": 99
  },
  {
   "record": "r-7c616040c25f",
   "kind": "negative-result",
   "what": "The frozen operator moves the 2S–8S prediction slightly further from measurement (from −0.700628 to −0.720112 sigma), and the target is too imprecise to exclude it.",
   "quote": "This is a useful negative result. The operator earns no predictive credit, but the target uncertainty is 51.326 times its predicted effect, so the model is not excluded either.",
   "cluster": "matter-revisions",
   "n": 100
  },
  {
   "record": "r-50f47ab4cdb8",
   "kind": "negative-result",
   "what": "Same holdout as revision 1.58. Not being rejected is explicitly not treated as support.",
   "quote": "Non-rejection is preserved as ambiguity, not converted into confirmation.",
   "cluster": "matter-revisions",
   "n": 101
  },
  {
   "record": "r-4286df93f3ee",
   "kind": "negative-result",
   "what": "The universal one-scalar harmony claim (MH-008) is recorded as rejected, alongside many other rejected identification and ontological claims.",
   "quote": "Rejected by fusion and Ag/Pd counterexamples",
   "cluster": "matter-revisions",
   "n": 102
  },
  {
   "record": "r-435b7200338e",
   "kind": "negative-result",
   "what": "The shared musical correction factor fitted on 45 training elements slightly worsened the 53 held-out elements (−0.01848 cents). The predeclared criterion failed and was not switched afterwards.",
   "quote": "The predeclared success criterion failed.",
   "cluster": "matter-revisions",
   "n": 103
  },
  {
   "record": "r-435b7200338e",
   "kind": "repair",
   "what": "The audit found a parser bug: a 'P' persistent-line marker was being read as phosphorus. After the fix, eligible lines rose from 11,697 to 11,729. The original parser and preliminary results are kept, marked as superseded.",
   "quote": "Correcting that marker interpretation increased the eligible count from 11,697 to 11,729 and slightly changed the training-fitted factor.",
   "cluster": "matter-revisions",
   "n": 104
  },
  {
   "record": "r-435b7200338e",
   "kind": "correction",
   "what": "Preliminary numbers given earlier in messages are withdrawn in favour of the corrected report.",
   "quote": "Earlier messages' preliminary numerical values are superseded by this report.",
   "cluster": "matter-revisions",
   "n": 105
  },
  {
   "record": "r-92f68f02a2fa",
   "kind": "negative-result",
   "what": "No cylinder or helix winding law: none of four controlled comparisons passes the adjusted 5% threshold, and the line-level heterogeneity (raw 0.0304) disappears under near-line blocking.",
   "quote": "The excess seen in the line-level comparison does not survive this control.",
   "cluster": "matter-revisions",
   "n": 106
  },
  {
   "record": "r-03af7a213e27",
   "kind": "negative-result",
   "what": "The narrow At/Fr cluster chosen after inspecting the chart does not generalise. One borderline At hit and four differing Fr offsets show no common displacement.",
   "quote": "The original narrow alignment does not generalize as a common offset across the additional transitions examined.",
   "cluster": "matter-revisions",
   "n": 107
  },
  {
   "record": "r-03af7a213e27",
   "kind": "failed-attempt",
   "what": "Automatic PDF checkbox extraction failed at first. The parser was corrected without changing the frozen observations, then checked against all 45 branches and by eye.",
   "quote": "A preliminary automatic check of PDF checkbox positions failed because splitting text removed the first-line column offset.",
   "cluster": "matter-revisions",
   "n": 108
  },
  {
   "record": "r-03af7a213e27",
   "kind": "correction",
   "what": "Two At entries flagged as a possible hyperfine doublet are withheld from the strict counts; no made-up centroid is substituted.",
   "quote": "Both are withheld from strict electronic-transition counts until assigned.",
   "cluster": "matter-revisions",
   "n": 109
  },
  {
   "record": "r-07cef9ed332f",
   "kind": "correction",
   "what": "The repeating slopes in the earlier At/Fr plot come from the log note mapping, not from atoms. The earlier report should have said so.",
   "quote": "That earlier plot should have labeled the deterministic coordinate dependence explicitly.",
   "cluster": "matter-revisions",
   "n": 110
  },
  {
   "record": "r-6df375e4347b",
   "kind": "negative-result",
   "what": "All eleven closed energy-difference loops come from At transitions reconstructed from the same levels, so they cannot validate anything. The four measured Fr lines form no loop, and cycle closure cannot certify absolute frequency scale.",
   "quote": "All come from reconstructed At inputs; the four measured Fr branches form no loop.",
   "cluster": "matter-revisions",
   "n": 111
  },
  {
   "record": "r-62fcd117c532",
   "kind": "correction",
   "what": "Release 0.2 explains why the 0.1 cloud could never show changing waves: a single energy eigenstate has static density.",
   "quote": "It therefore could not show interacting waves producing a changing 3D image.",
   "cluster": "hydrogen-elements",
   "n": 112
  },
  {
   "record": "r-249244afa345",
   "kind": "correction",
   "what": "The ideal fixed-proton Coulomb clock used in 0.2 misses the NIST Lyman-alpha centroid; the animation is re-clocked from NIST.",
   "quote": "The release-0.2 nonrelativistic fixed-proton Coulomb prediction was `121.502273411 nm`, or `0.064730589 nm` shorter than the NIST centroid, a relative error of `-0.0532468%`.",
   "cluster": "hydrogen-elements",
   "n": 113
  },
  {
   "record": "r-249244afa345",
   "kind": "negative-result",
   "what": "The tangent-3-sphere rotor hypothesis fails a pre-registered train/holdout test, worse than both simple baselines.",
   "quote": "The rotor was worse than both baselines on all three aggregate metrics.",
   "cluster": "hydrogen-elements",
   "n": 114
  },
  {
   "record": "r-8da92f374f97",
   "kind": "failed-attempt",
   "what": "A bounded rescue adding up to four phase-shifted copies of the frozen rotor improves holdout error by only 0.34% and is rejected.",
   "quote": "Five of six gates fail, so this bounded rescue is rejected.",
   "cluster": "hydrogen-elements",
   "n": 115
  },
  {
   "record": "r-8da92f374f97",
   "kind": "negative-result",
   "what": "Temperature (including negative temperature) does not reverse quantum phase direction; only time reversal does.",
   "quote": "Temperature does not enter that unitary.",
   "cluster": "hydrogen-elements",
   "n": 116
  },
  {
   "record": "r-81b60f656540",
   "kind": "correction",
   "what": "Corrects the premise that the hydrogen model lacked electromagnetism; the Coulomb potential is the electromagnetic interaction.",
   "quote": "The correction begins with terminology: the old model did **not** omit electromagnetism.",
   "cluster": "hydrogen-elements",
   "n": 117
  },
  {
   "record": "r-81b60f656540",
   "kind": "negative-result",
   "what": "The remaining 3.3 ppm residual is assigned to omitted standard physics, not used to manufacture a four-dimensional operator.",
   "quote": "No `O_4` has yet been derived, so release 0.5 does not manufacture one from the residual.",
   "cluster": "hydrogen-elements",
   "n": 118
  },
  {
   "record": "r-12135221929f",
   "kind": "correction",
   "what": "Corrects the idea that the Schrödinger equation had been forgotten; what was missing was probability current and the observable gate.",
   "quote": "Schrödinger evolution was already present; probability current, electromagnetic minimal coupling, and the observable/selection-rule gate were not explicit in the engine.",
   "cluster": "hydrogen-elements",
   "n": 119
  },
  {
   "record": "r-12135221929f",
   "kind": "negative-result",
   "what": "The independent continuity audit's poor full-interior residual near the nuclear cusp is reported, not hidden.",
   "quote": "The full-interior residual `0.116031` is preserved because a Cartesian finite-difference stencil converges slowly across the Coulomb cusp; it is not hidden as a pass.",
   "cluster": "hydrogen-elements",
   "n": 120
  },
  {
   "record": "r-12135221929f",
   "kind": "negative-result",
   "what": "Density beats do not all become light: 1s+2s changes density yet emits no electric-dipole signal.",
   "quote": "The separate `1s + 2s` control also has a changing local density but exactly zero one-photon electric-dipole signal.",
   "cluster": "hydrogen-elements",
   "n": 121
  },
  {
   "record": "r-51077294ef69",
   "kind": "negative-result",
   "what": "No exact golden ratio exists between ideal hydrogen gap ratios; the closest of 303,809 comparisons is kept as a coincidence.",
   "quote": "It is explicitly retained as a near coincidence, not an exact law.",
   "cluster": "hydrogen-elements",
   "n": 122
  },
  {
   "record": "r-456f359a0490",
   "kind": "negative-result",
   "what": "The classical expectation-dipole field carries exactly half the quantum emission rate, showing the compiler is incomplete without a quantised field.",
   "quote": "A classical projection of the expectation dipole is not the complete spontaneous-photon channel.",
   "cluster": "hydrogen-elements",
   "n": 123
  },
  {
   "record": "r-9c0d442dad18",
   "kind": "negative-result",
   "what": "The ledger rejects the claim that release 0.8 displays every property of hydrogen or reality.",
   "quote": "The executable registry marks spontaneous photon statistics and spin/magnetic moment as blocked and higher-dimensional cause as non-identified.",
   "cluster": "hydrogen-elements",
   "n": 124
  },
  {
   "record": "r-bb51103f7acd",
   "kind": "negative-result",
   "what": "A free-electron-only response fails on untouched gold wavelengths; one interband oscillator is needed.",
   "quote": "on five untouched wavelengths, gold reflectance MAE is 0.154691 for Drude and 0.019718 for Drude plus one Lorentz oscillator.",
   "cluster": "hydrogen-elements",
   "n": 125
  },
  {
   "record": "r-bb51103f7acd",
   "kind": "negative-result",
   "what": "The one-oscillator response strains at its declared parameter bounds, so it is not a complete microscopic theory.",
   "quote": "Gold Drude damping and silver background permittivity hit declared lower bounds.",
   "cluster": "hydrogen-elements",
   "n": 126
  },
  {
   "record": "r-bb51103f7acd",
   "kind": "negative-result",
   "what": "A 3D animation of the five-coordinate skew-linear motion is refuted as evidence for a fifth spatial dimension.",
   "quote": "Every continuous linear 3-vector output is exactly a constant plus at most two ordinary sine/cosine pairs.",
   "cluster": "hydrogen-elements",
   "n": 127
  },
  {
   "record": "r-3636ed2ff4b1",
   "kind": "negative-result",
   "what": "The published ATLAS search fails the programme's necessary cross-channel screen for an extra dimension.",
   "quote": "The primary cross-channel rule fails, the conservative familywise rule fails,",
   "cluster": "hydrogen-elements",
   "n": 128
  },
  {
   "record": "r-615550862b88",
   "kind": "negative-result",
   "what": "The chosen CW/LD benchmark is excluded by all four published ATLAS observed contours.",
   "quote": "lies on the excluded side of all four published observed contours.",
   "cluster": "hydrogen-elements",
   "n": 129
  },
  {
   "record": "r-615550862b88",
   "kind": "failed-attempt",
   "what": "An earlier test run with one failure is kept on record; the fix changed only a test comparison, not data or parameters.",
   "quote": "its lone failure compared Python tuples directly with JSON arrays.",
   "cluster": "hydrogen-elements",
   "n": 130
  },
  {
   "record": "r-2b014f84d8bb",
   "kind": "failed-attempt",
   "what": "The first independent audit failed because of a swapped hardcoded expectation; the failure file is retained.",
   "quote": "The initial independent-audit failure, caused only by a swapped hardcoded channel/threshold expectation, is retained",
   "cluster": "hydrogen-elements",
   "n": 131
  },
  {
   "record": "r-2b014f84d8bb",
   "kind": "failed-attempt",
   "what": "Real-browser validation could not be run, and the release says so instead of claiming it.",
   "quote": "the real-browser preview was blocked because no browser binary was installed and the browser download failed (timeouts/HTTP 502).",
   "cluster": "hydrogen-elements",
   "n": 132
  },
  {
   "record": "r-fe6d26d12295",
   "kind": "negative-result",
   "what": "Signal strength and detector efficiency are exactly degenerate; a wrong efficiency gives a perfect fit with a wrong strength.",
   "quote": "A 20% efficiency underestimate (0.64 instead of 0.8) inflates fitted strength by 25%.",
   "cluster": "hydrogen-elements",
   "n": 133
  },
  {
   "record": "r-fe6d26d12295",
   "kind": "negative-result",
   "what": "Positive mean estimates at zero injected signal come from the estimator boundary and are explicitly not counted as detections.",
   "quote": "the positive mean reflects the nonnegative estimator boundary and must not be counted as detections.",
   "cluster": "hydrogen-elements",
   "n": 134
  },
  {
   "record": "r-9bcf81fa9421",
   "kind": "negative-result",
   "what": "Visible gold colour cannot come from first-order Bragg diffraction by atomic FCC planes.",
   "quote": "Visible gold color is therefore not ordinary first-order diffraction from these atomic FCC planes.",
   "cluster": "hydrogen-elements",
   "n": 135
  },
  {
   "record": "r-9bcf81fa9421",
   "kind": "repair",
   "what": "A pre-release test using an exact zero comparison was replaced by a floating-point tolerance; no model or data changed.",
   "quote": "A pre-release optical test replaced an unrealistically exact zero comparison by a floating-point tolerance (residual about 5.9e-32); no physical model or source data changed for that fix.",
   "cluster": "hydrogen-elements",
   "n": 136
  },
  {
   "record": "r-5860aee36113",
   "kind": "failed-attempt",
   "what": "An earlier full test run ended without a summary; it is retained but not counted.",
   "quote": "the earlier log ended without a summary and is retained but is not counted as a completed run.",
   "cluster": "hydrogen-elements",
   "n": 137
  },
  {
   "record": "r-33deacfda028",
   "kind": "correction",
   "what": "A metadata error found by the independent audit was corrected.",
   "quote": "A left-handed-input metadata error found during the independent audit was corrected:",
   "cluster": "hydrogen-elements",
   "n": 138
  },
  {
   "record": "r-a00a6dab1f40",
   "kind": "repair",
   "what": "The independent audit caught two cutoff errors at extreme scales, fixed before release.",
   "quote": "The independent audit found and corrected two extreme-scale cutoff errors before release: dropping small nonzero q and using an absolute tolerance that became larger than a tiny requested sphere.",
   "cluster": "hydrogen-elements",
   "n": 139
  },
  {
   "record": "r-a00a6dab1f40",
   "kind": "negative-result",
   "what": "A proven homometric pair shows intensity data alone cannot identify a unique geometry.",
   "quote": "More intensity samples alone cannot distinguish this pair within the declared model.",
   "cluster": "hydrogen-elements",
   "n": 140
  },
  {
   "record": "r-5d2c11aea25f",
   "kind": "negative-result",
   "what": "Three declared candidate time ticks are rejected by the direct-multiple test against rounded NIST Lyman-alpha wavelengths.",
   "quote": "`1e-18 s`, `1e-21 s`, and `1e-22 s` fail.",
   "cluster": "gauge-optics-shapes",
   "n": 141
  },
  {
   "record": "r-5d2c11aea25f",
   "kind": "negative-result",
   "what": "The Planck-time candidate passes only trivially, so its pass is explicitly not counted as evidence.",
   "quote": "passes trivially because it is vastly below the data resolution; this is not identification or evidence.",
   "cluster": "gauge-optics-shapes",
   "n": 142
  },
  {
   "record": "r-5d2c11aea25f",
   "kind": "negative-result",
   "what": "Written theorem: finite-precision data cannot identify an arbitrarily small universal tick.",
   "quote": "Thus finite-precision values alone cannot identify an arbitrarily small universal tick.",
   "cluster": "gauge-optics-shapes",
   "n": 143
  },
  {
   "record": "r-5d2c11aea25f",
   "kind": "negative-result",
   "what": "Apparent common divisibility of printed wavelengths is shown to be a reporting artefact, not a natural tick.",
   "quote": "proving that apparent common divisibility can be a reporting artifact.",
   "cluster": "gauge-optics-shapes",
   "n": 144
  },
  {
   "record": "r-441b2e8db915",
   "kind": "correction",
   "what": "Release 0.2.0 corrects the minimum-hidden-memory statement: the minimum uses the maximum actual number of future-equivalence classes, not a loose bound.",
   "quote": "A loose upper bound gives a sufficient capacity, not necessarily the minimum.",
   "cluster": "gauge-optics-shapes",
   "n": 145
  },
  {
   "record": "r-441b2e8db915",
   "kind": "correction",
   "what": "An exact four-cycle counterexample corrects the claim that one-step conditionals establish autonomous Markov closure.",
   "quote": "This exact counterexample clarifies that one-step conditionals alone do not establish autonomous Markov closure.",
   "cluster": "gauge-optics-shapes",
   "n": 146
  },
  {
   "record": "r-441b2e8db915",
   "kind": "negative-result",
   "what": "An eigenvalue alias leaves every integer-tick state unchanged, so tick observations cannot identify the generator.",
   "quote": "it demonstrates what unrestricted tick observations cannot identify.",
   "cluster": "gauge-optics-shapes",
   "n": 147
  },
  {
   "record": "r-021dc11952bb",
   "kind": "negative-result",
   "what": "Exact tick evolution samples continuous-time evolution, so it cannot reveal whether time is discrete.",
   "quote": "Consequently this update cannot identify whether time itself is discrete, regardless of how accurately it is run.",
   "cluster": "gauge-optics-shapes",
   "n": 148
  },
  {
   "record": "r-03e1b6b1c0c4",
   "kind": "correction",
   "what": "The retained correction: repeated deterministic closure cannot produce seven strict refinements.",
   "quote": "Complete deterministic closure for one fixed transition family is idempotent; repeated closure cannot produce seven strict complete refinements.",
   "cluster": "gauge-optics-shapes",
   "n": 149
  },
  {
   "record": "r-03e1b6b1c0c4",
   "kind": "negative-result",
   "what": "The physical promotion gate is declared blocked for the 0.2.0 benchmark.",
   "quote": "This release remains a frozen mathematical/numerical benchmark; its physical promotion gate is blocked.",
   "cluster": "gauge-optics-shapes",
   "n": 150
  },
  {
   "record": "r-0a81254b1bd1",
   "kind": "correction",
   "what": "Corrects the unqualified claim that one scalar can only trace a curve: it needs regularity, since finite codes and Peano curves are counterexamples.",
   "quote": "The claim “one scalar can only trace a curve” requires regularity:",
   "cluster": "gauge-optics-shapes",
   "n": 151
  },
  {
   "record": "r-0a81254b1bd1",
   "kind": "negative-result",
   "what": "Two different 4D sets share all four axis projections, so these shadows cannot identify the 4D object.",
   "quote": "Hence `E != O` but all four axis X-rays agree. Their labelled `w` slices differ and reconstruct each set separately.",
   "cluster": "gauge-optics-shapes",
   "n": 152
  },
  {
   "record": "r-f2f7bd9d9599",
   "kind": "correction",
   "what": "Release 0.5.0 corrects the 0.4.0 acoustic support threshold for polystyrene.",
   "quote": "The 0.4 polystyrene threshold is corrected from 1010.8585 Pa to 1010.2788 Pa per array.",
   "cluster": "gauge-optics-shapes",
   "n": 153
  },
  {
   "record": "r-f2f7bd9d9599",
   "kind": "negative-result",
   "what": "In the 0.4.0 acoustic-support model the apparatus still carries the full weight: support, not reduced mass.",
   "quote": "The closed apparatus still carries the full `mg` load.",
   "cluster": "gauge-optics-shapes",
   "n": 154
  },
  {
   "record": "r-f2f7bd9d9599",
   "kind": "correction",
   "what": "Release 0.6.0 corrects a domain error in a catalogue of exceptional mathematics about exotic smooth structures.",
   "quote": "It corrects a domain error: Euclidean `R^4` is uniquely exceptional among Euclidean spaces for exotic smoothings, but many non-4-dimensional manifolds have multiple smooth structures",
   "cluster": "gauge-optics-shapes",
   "n": 155
  },
  {
   "record": "r-f2f7bd9d9599",
   "kind": "negative-result",
   "what": "None of the 14 audited mathematical exceptions passes the physical-dimension promotion gate (0.6.0).",
   "quote": "None of the 14 entries passes the physical-dimension promotion gate.",
   "cluster": "gauge-optics-shapes",
   "n": 156
  },
  {
   "record": "r-f2f7bd9d9599",
   "kind": "negative-result",
   "what": "Negative control in 0.9.0: gauge symmetry alone does not fix the Hamiltonian.",
   "quote": "why gauge symmetry alone does not determine a unique Hamiltonian",
   "cluster": "gauge-optics-shapes",
   "n": 157
  },
  {
   "record": "r-f2f7bd9d9599",
   "kind": "negative-result",
   "what": "Failure control in 0.10.0: removing field backreaction breaks Gauss preservation and energy conservation.",
   "quote": "Removing the field response while retaining the moving matter field breaks Gauss preservation and energy conservation.",
   "cluster": "gauge-optics-shapes",
   "n": 158
  },
  {
   "record": "r-f2f7bd9d9599",
   "kind": "correction",
   "what": "Release 0.12.0 corrects the 0.11.0 frequency results, which omitted a factor and hold for unit-speed coefficients only.",
   "quote": "Revision 0.11.0 frequency results omit `sqrt(kappa beta)` and apply to unit-speed coefficients only",
   "cluster": "gauge-optics-shapes",
   "n": 159
  },
  {
   "record": "r-f2f7bd9d9599",
   "kind": "failed-attempt",
   "what": "The first 0.14.0 manufactured-solution run failed and is archived, not hidden.",
   "quote": "archived first failed run `history/failed_mms_0.14_v1`",
   "cluster": "gauge-optics-shapes",
   "n": 160
  },
  {
   "record": "r-f2f7bd9d9599",
   "kind": "negative-result",
   "what": "Release 0.19.0 states that no real measured dataset currently meets the model, units and observable gate.",
   "quote": "No source of real measured data currently satisfies the model/units/observable gate.",
   "cluster": "gauge-optics-shapes",
   "n": 161
  },
  {
   "record": "r-f2f7bd9d9599",
   "kind": "negative-result",
   "what": "Release 0.22.0: an exact countermodel makes a material delay indistinguishable from an excess light path once the paths are mismatched.",
   "quote": "an exact counterexample replaces the entire 0.8 ns material delay with an observationally identical 0.8 ns excess-path delay.",
   "cluster": "gauge-optics-shapes",
   "n": 162
  },
  {
   "record": "r-9652d273d004",
   "kind": "failed-attempt",
   "what": "The browser preview of the interactive shape viewer was blocked, so its layout was not verified.",
   "quote": "The full browser preview was blocked by the environment's URL policy; JavaScript syntax was checked locally, and static catalog and atlas images were inspected. Interaction layout was not verified in an actual browser.",
   "cluster": "gauge-optics-shapes",
   "n": 163
  },
  {
   "record": "r-6875140b9128",
   "kind": "negative-result",
   "what": "The exact eightfold board-symmetry quotient is far too small to reach full chess.",
   "quote": "Our eightfold symmetry quotient is real but nowhere near enough to defeat that scale",
   "cluster": "chess-rope-prng-rbe",
   "n": 164
  },
  {
   "record": "r-3fe7cf744ab8",
   "kind": "negative-result",
   "what": "Merging states with identical complete future laws (strong bisimulation) barely compresses KRK or KQK.",
   "quote": "The result is exact but negative: strict identity of complete future laws is far too fine.",
   "cluster": "chess-rope-prng-rbe",
   "n": 165
  },
  {
   "record": "r-3fe7cf744ab8",
   "kind": "negative-result",
   "what": "The large compression from grouping by solved value is rejected as circular.",
   "quote": "That partition is circular because it uses the answer we seek.",
   "cluster": "chess-rope-prng-rbe",
   "n": 166
  },
  {
   "record": "r-d06ca187fd05",
   "kind": "negative-result",
   "what": "The exact depth-four probe from the initial position leaves every root move at [-1,+1].",
   "quote": "This directly falsifies any claim that shallow checkmate-counting or local forcing alone has solved the opening position.",
   "cluster": "chess-rope-prng-rbe",
   "n": 167
  },
  {
   "record": "r-192640670d05",
   "kind": "negative-result",
   "what": "Constraint-wave signatures predict values but are nearly one signature per state, so they do not scale.",
   "quote": "The absolute constraint field is not yet the scalable missing variable.",
   "cluster": "chess-rope-prng-rbe",
   "n": 168
  },
  {
   "record": "r-88c2103b5c5b",
   "kind": "negative-result",
   "what": "Total tension rises at checkmate, so heat cannot serve as an evaluation.",
   "quote": "global tension increases from 16 before the move to 28 after checkmate. Therefore global heat is neither an evaluation function nor a quantity to maximize or minimize.",
   "cluster": "chess-rope-prng-rbe",
   "n": 169
  },
  {
   "record": "r-9b58e8d87cb0",
   "kind": "negative-result",
   "what": "The exchange-dependency ordering saves nodes but is slower in wall time than the forcing baseline.",
   "quote": "It does not reduce wall time relative to forcing: constructing the dependency graphs makes the measured run 10.22% slower.",
   "cluster": "chess-rope-prng-rbe",
   "n": 170
  },
  {
   "record": "r-b7e0db547cd6",
   "kind": "negative-result",
   "what": "C6's ordering advantage fails at the initial position, where it uses more nodes than plain lexical order.",
   "quote": "C6's aggregate advantage on the eight-position tactical corpus therefore does not transfer to the initial-position negative-mate proof.",
   "cluster": "chess-rope-prng-rbe",
   "n": 171
  },
  {
   "record": "r-bc77a3eb88d2",
   "kind": "failed-attempt",
   "what": "A richer escape heuristic cost more than it saved.",
   "quote": "A richer escape heuristic used 9,926 calls and 21,490 edges at five plies and took 95.13 seconds. Feature cost dominated any ordering benefit.",
   "cluster": "chess-rope-prng-rbe",
   "n": 172
  },
  {
   "record": "r-bc77a3eb88d2",
   "kind": "failed-attempt",
   "what": "Best-first proof-number search was much worse than depth-first lexical search for the negative certificate.",
   "quote": "A naive best-first proof-number search expanded 40,316 nodes and generated 743,471 children in 32.44 seconds at five plies.",
   "cluster": "chess-rope-prng-rbe",
   "n": 173
  },
  {
   "record": "r-bc77a3eb88d2",
   "kind": "failed-attempt",
   "what": "An over-conservative history pilot was abandoned for memory growth.",
   "quote": "It was stopped after about 21 minutes because it had grown to roughly 3.5 GB without completing.",
   "cluster": "chess-rope-prng-rbe",
   "n": 174
  },
  {
   "record": "r-709ba3d90a0c",
   "kind": "failed-attempt",
   "what": "Pair-conditioned 'move dance' classes fragment support and make the proof much worse.",
   "quote": "Pair conditioning expands the vocabulary from 102 relation classes to 1,264 pair-relation classes and destroys transfer.",
   "cluster": "chess-rope-prng-rbe",
   "n": 175
  },
  {
   "record": "r-709ba3d90a0c",
   "kind": "failed-attempt",
   "what": "Updating the frequency model online destabilises the search.",
   "quote": "Online reinforcement also destabilizes traversal.",
   "cluster": "chess-rope-prng-rbe",
   "n": 176
  },
  {
   "record": "r-709ba3d90a0c",
   "kind": "negative-result",
   "what": "The frequency method does not transfer to Black as attacker; the nine-ply Black proof gets worse.",
   "quote": "The role symmetry fails.",
   "cluster": "chess-rope-prng-rbe",
   "n": 177
  },
  {
   "record": "r-0e49c4b376ca",
   "kind": "failed-attempt",
   "what": "An earlier market test was rejected for collapsing each bar to UP/DOWN before analysis.",
   "quote": "The previous test was rejected because it projected each bar to UP/DOWN before the relational analysis.",
   "cluster": "chess-rope-prng-rbe",
   "n": 178
  },
  {
   "record": "r-128270b32cd4",
   "kind": "negative-result",
   "what": "Successful optimisation did not validate the echo-mismatched model, which failed withheld prediction.",
   "quote": "The echo model failed that prediction check despite successful optimization.",
   "cluster": "chess-rope-prng-rbe",
   "n": 179
  },
  {
   "record": "r-128270b32cd4",
   "kind": "negative-result",
   "what": "The rank test cannot tell two aligned drivers from one.",
   "quote": "The scalar-driver test rejected independent coupling directions, but could not distinguish aligned drivers.",
   "cluster": "chess-rope-prng-rbe",
   "n": 180
  },
  {
   "record": "r-128270b32cd4",
   "kind": "correction",
   "what": "The proposed phase-to-position address decoder is corrected: phase mixes transit and local response.",
   "quote": "This is the first correction to the proposed address decoder. Measured phase contains both transit and local response.",
   "cluster": "chess-rope-prng-rbe",
   "n": 181
  },
  {
   "record": "r-570b32f2f2b6",
   "kind": "correction",
   "what": "Lab 0.2.0 audit corrects the main paper's seven-stage closure argument, which Revision 1.14 (r-068ce17145c0) retracts.",
   "quote": "Version 0.2.0 adds experiment selection, explicit rejection of an inadequate candidate set, and an exact audit correcting the main paper's former seven-stage closure argument.",
   "cluster": "chess-rope-prng-rbe",
   "n": 182
  },
  {
   "record": "r-570b32f2f2b6",
   "kind": "negative-result",
   "what": "The 0.13 sign process fails under a marginally balanced persistent chain, showing the null must be conditional.",
   "quote": "A marginally balanced sign chain with 90% persistence crossed 3,772/5,000 times, proving the null must be conditional rather than marginal.",
   "cluster": "chess-rope-prng-rbe",
   "n": 183
  },
  {
   "record": "r-570b32f2f2b6",
   "kind": "negative-result",
   "what": "The 0.12 candidate allocation failed its frozen loss guard and was not released.",
   "quote": "The candidate improved noisy-shock detection by 1.935 percentage points but reduced persistent mean detection by 5.165 points, failing the frozen two-point loss guard. The released default was retained.",
   "cluster": "chess-rope-prng-rbe",
   "n": 184
  },
  {
   "record": "r-570b32f2f2b6",
   "kind": "negative-result",
   "what": "The 0.7 variance process misses small scale errors and is triggered when Gaussianity is false.",
   "quote": "only 251/2,000 smaller 1.10-scale paths crossed, and 1,047/2,000 variance-one Student-t3 paths crossed because Gaussianity was false.",
   "cluster": "chess-rope-prng-rbe",
   "n": 185
  },
  {
   "record": "r-570b32f2f2b6",
   "kind": "negative-result",
   "what": "Combining two 1% rules by OR has no 1% guarantee.",
   "quote": "Giving both components a full 1% and ORing them rejected 45 null histories and has no 1% guarantee from the component bounds.",
   "cluster": "chess-rope-prng-rbe",
   "n": 186
  },
  {
   "record": "r-1360ddb369ef",
   "kind": "correction",
   "what": "v0.10 corrects two logical shortcuts in earlier residual reasoning.",
   "quote": "It also corrects two logical shortcuts: a satisfied inequality need not have zero signed slack, and a tiny numerical residual need not imply an accurate parameter.",
   "cluster": "chess-rope-prng-rbe",
   "n": 187
  },
  {
   "record": "r-1360ddb369ef",
   "kind": "correction",
   "what": "v0.15 independent check caught an omitted quadratic term.",
   "quote": "an omitted quadratic term caught and corrected by independent Fourier convolution.",
   "cluster": "chess-rope-prng-rbe",
   "n": 188
  },
  {
   "record": "r-1360ddb369ef",
   "kind": "failed-attempt",
   "what": "v0.17's sharper bound still fails the perturbation-0.5 fluid input.",
   "quote": "same configuration at perturbation 0.5 still fails its sufficient envelope;",
   "cluster": "chess-rope-prng-rbe",
   "n": 189
  },
  {
   "record": "r-1360ddb369ef",
   "kind": "repair",
   "what": "v0.18 certifies that perturbation-0.5 input, keeping earlier policies as failed estimates.",
   "quote": "It now independently certifies the frozen perturbation-0.5 fluid input.",
   "cluster": "chess-rope-prng-rbe",
   "n": 190
  },
  {
   "record": "r-1360ddb369ef",
   "kind": "negative-result",
   "what": "Earlier fluid-certificate policies are kept frozen as failures on the same input.",
   "quote": "The earlier reference and fixed-cap policies remain frozen as failed sufficient estimates on this same input.",
   "cluster": "chess-rope-prng-rbe",
   "n": 191
  },
  {
   "record": "r-1360ddb369ef",
   "kind": "negative-result",
   "what": "A false near-satisfaction stopping rule for SAT is rejected.",
   "quote": "rejects a false near-satisfaction stopping rule",
   "cluster": "chess-rope-prng-rbe",
   "n": 192
  },
  {
   "record": "r-1360ddb369ef",
   "kind": "negative-result",
   "what": "A chain of assumed implications among the prize problems decides nothing; all remain open.",
   "quote": "A circular chain of assumed implications does not decide their truth",
   "cluster": "chess-rope-prng-rbe",
   "n": 193
  },
  {
   "record": "r-8932ff1185c8",
   "kind": "retraction",
   "what": "Revision 1.14 withdrew Theorem 17.1, the claim that repeated complete refinement gives seven strict stages, because its premises were incompatible: complete refinement is idempotent.",
   "quote": "The previous Theorem 17.1 had incompatible premises: complete deterministic refinement for one fixed transition family is idempotent, so repeated complete refinement cannot yield seven strict stages.",
   "cluster": "theory-core",
   "n": 194
  },
  {
   "record": "r-9c556a0548e7",
   "kind": "retraction",
   "what": "The court audit records the same withdrawal of the 'seven strict refinements' theorem.",
   "quote": "theorem was retracted because the closure operator is idempotent: after exact closure, repeating the same operator produces no further strict refinement.",
   "cluster": "theory-core",
   "n": 195
  },
  {
   "record": "r-9c556a0548e7",
   "kind": "correction",
   "what": "The exact-recurrence theorem corrects the earlier unconditional claim that time can align only at the beginning. Exact recurrence depends on whether the frequencies are commensurate.",
   "quote": "Corrects the unconditional nonrecurrence claim",
   "cluster": "theory-core",
   "n": 196
  },
  {
   "record": "r-9c556a0548e7",
   "kind": "negative-result",
   "what": "No accessible variable predicting individual Born-random outcomes has been found. Only synthetic positive worlds pass the detector.",
   "quote": "No empirical predictor has been found.",
   "cluster": "theory-core",
   "n": 197
  },
  {
   "record": "r-9c556a0548e7",
   "kind": "negative-result",
   "what": "The P3-R1 hardware pilot was never run on a QPU. The instrument is ready, but there is no physical evidence.",
   "quote": "the measurement instrument is executable and adversarially tested; the physical exhibit is absent",
   "cluster": "theory-core",
   "n": 198
  },
  {
   "record": "r-8932ff1185c8",
   "kind": "correction",
   "what": "An external review of v1.65 is applied: Theorem 6.2 gains a continuity hypothesis, the AL.5 retention principle is downgraded from necessary to sufficient, and a DOI and other labels are fixed.",
   "quote": "This revision also applies an external review of v1.65: Theorem 6.2 gains its missing continuity hypothesis; the Appendix AL.5 retention principle is corrected from a necessary to a sufficient condition",
   "cluster": "theory-core",
   "n": 199
  },
  {
   "record": "r-be3eaac1ae3c",
   "kind": "correction",
   "what": "Several Appendix BS inferences fail. A point-sized slice can arise with only one hidden coordinate, so the rule 'point implies at least three extra dimensions' is false as stated.",
   "quote": "visible slice dimension need not count hidden dimensions; a nonrigid inversion need not pass through a globally achiral configuration; no observed flips do not determine a compactification radius",
   "cluster": "theory-core",
   "n": 200
  },
  {
   "record": "r-be3eaac1ae3c",
   "kind": "correction",
   "what": "A five-point path stays chiral throughout yet ends as its mirror image, refuting the claim that every in-space inversion passes through an achiral state.",
   "quote": "It is a counterexample to the universal claim that every in-space inversion must pass through a globally achiral state.",
   "cluster": "theory-core",
   "n": 201
  },
  {
   "record": "r-be3eaac1ae3c",
   "kind": "correction",
   "what": "The quartz rate figures are an inverse-exposure scale, not measured bounds. Three numerical values in BS.6 are also corrected.",
   "quote": "Neither number is a measured quartz bound in this audit.",
   "cluster": "theory-core",
   "n": 202
  },
  {
   "record": "r-2711bdafd755",
   "kind": "correction",
   "what": "The proposed racemisation floor test is corrected. A rate floor would be an anomaly to investigate, not a certificate of rigidity or of a higher dimension.",
   "quote": "A temperature-independent, isotope-insensitive rate floor would be an anomaly to investigate, not automatically a rigidity certificate.",
   "cluster": "theory-core",
   "n": 203
  },
  {
   "record": "r-2711bdafd755",
   "kind": "negative-result",
   "what": "The wave constructions do not separate an extra spatial direction from ordinary-space models.",
   "quote": "The tested wave constructions do not distinguish an additional physical spatial direction from ordinary-space alternatives.",
   "cluster": "theory-core",
   "n": 204
  },
  {
   "record": "r-2711bdafd755",
   "kind": "failed-attempt",
   "what": "Raw matrix rank as a dimension count fails under noise: 0.1% noise raised the numerical rank from 7 to 72.",
   "quote": "Raw matrix rank is not a reliable dimension detector in noisy measurements.",
   "cluster": "theory-core",
   "n": 205
  },
  {
   "record": "r-2711bdafd755",
   "kind": "negative-result",
   "what": "One compact-model case failed the predeclared gate and was reported as failed. The threshold was not loosened.",
   "quote": "The one declined compact-model case had reserved harmonic score 1.275, above the declared 1.25 gate. Its force score was 0.984. No thresholds were changed to rescue it.",
   "cluster": "theory-core",
   "n": 206
  },
  {
   "record": "r-88d96126ec54",
   "kind": "negative-result",
   "what": "A changed potential still passes the gauge-covariance check, so symmetry alone does not identify the Hamiltonian.",
   "quote": "Adding 1.7 energy units to the first site's potential still passes gauge covariance, but changes final probabilities by 0.08500, 0.07941 and 0.03349.",
   "cluster": "theory-core",
   "n": 207
  },
  {
   "record": "r-88d96126ec54",
   "kind": "repair",
   "what": "A mismatch between the VERSION metadata and the release number was found and corrected, without rewriting earlier records.",
   "quote": "The old VERSION file still said 0.7.0 while the prior README and release were 0.8.0; this metadata inconsistency is corrected to 0.9.0 without changing earlier records.",
   "cluster": "theory-core",
   "n": 208
  },
  {
   "record": "r-cae4bcf2f553",
   "kind": "failed-attempt",
   "what": "The first execution crashed while writing JSON output. Only the reporting code was fixed; the frozen mathematics was left unchanged.",
   "quote": "The first development execution encountered a NumPy-boolean JSON serialization error; converting output flags to Python booleans fixed reporting without changing the frozen mathematics, parameters or tolerances.",
   "cluster": "theory-core",
   "n": 209
  },
  {
   "record": "r-1d8715c179d2",
   "kind": "retraction",
   "what": "Revision 1.81 retracts the claim that every dimension except four has exactly one smooth structure.",
   "quote": "The unqualified claim that every dimension except four has exactly one smooth structure is retracted",
   "cluster": "theory-core",
   "n": 210
  },
  {
   "record": "r-1d8715c179d2",
   "kind": "correction",
   "what": "Revision 1.81 also corrects the stated prime-count crossover bound.",
   "quote": "The claimed prime-count crossover below `10^316` is also corrected to a published interval near `1.398 x 10^316`.",
   "cluster": "theory-core",
   "n": 211
  },
  {
   "record": "r-1d8715c179d2",
   "kind": "correction",
   "what": "Revision 1.77 corrects the minimum-hidden-memory statement of Section 4.2.",
   "quote": "correct the minimum-hidden-memory statement in §4.2",
   "cluster": "theory-core",
   "n": 212
  },
  {
   "record": "r-1d8715c179d2",
   "kind": "correction",
   "what": "Revision 1.82 corrects the claim that a single scalar can only trace a curve.",
   "quote": "The revision also corrects the unqualified claim that one scalar can only trace a curve",
   "cluster": "theory-core",
   "n": 213
  },
  {
   "record": "r-1d8715c179d2",
   "kind": "correction",
   "what": "Revision 1.87 corrects the vacuum dispersion frequency given in revision 1.86, which had omitted the wave speed.",
   "quote": "Appendix CJ corrects the 1.86 vacuum dispersion frequency",
   "cluster": "theory-core",
   "n": 214
  },
  {
   "record": "r-1d8715c179d2",
   "kind": "failed-attempt",
   "what": "In revision 1.89 the first frozen driven trial failed its spatial gate. The failure was kept, and a corrected protocol was frozen before rerunning.",
   "quote": "The first frozen trial failed its spatial gate because the prescribed current was evaluated at sites rather than link midpoints.",
   "cluster": "theory-core",
   "n": 215
  },
  {
   "record": "r-350b255f3242",
   "kind": "negative-result",
   "what": "A short-rule LCG looks spectrally like noise, so a high rotor count is not proof of randomness.",
   "quote": "High rotor count does not prove randomness.",
   "cluster": "theory-core",
   "n": 216
  },
  {
   "record": "r-95573c01bc39",
   "kind": "negative-result",
   "what": "A search that stops when no one-bit move reduces error can fail on a satisfiable SAT family.",
   "quote": "Therefore a rule that stops when no one-bit push decreases the projected error can fail on a satisfiable formula.",
   "cluster": "theory-core",
   "n": 217
  },
  {
   "record": "r-95573c01bc39",
   "kind": "negative-result",
   "what": "Pairing zeros across a symmetry axis does not force them onto the critical line. A symmetric polynomial has all its zeros off the line.",
   "quote": "It refutes only the inference from those two symmetries alone to critical-line zeros.",
   "cluster": "theory-core",
   "n": 218
  },
  {
   "record": "r-edfdb0a56bf4",
   "kind": "negative-result",
   "what": "No cross-prize defect quantities or coupling inequalities were established. The loop-closing theorem stays conditional.",
   "quote": "No such cross-prize defects or inequalities have been established here.",
   "cluster": "theory-core",
   "n": 219
  },
  {
   "record": "r-edfdb0a56bf4",
   "kind": "negative-result",
   "what": "Without strict contraction the coupled error loop does not close: a nonzero exact solution exists, and it is kept on record.",
   "quote": "Strictness matters: at a=b=c=1, d=(1,1,1) is an exact nonzero solution. That failure is frozen in the research report.",
   "cluster": "theory-core",
   "n": 220
  },
  {
   "record": "r-c69c23892b03",
   "kind": "negative-result",
   "what": "The pi expression proposed for inverse alpha is close but not equal: about 14,505 reference standard uncertainties away.",
   "quote": "The illustrative expression 4*pi^3 + pi^2 + pi comes close to alpha's inverse but is not equal to its reference value.",
   "cluster": "october-edition",
   "n": 221
  },
  {
   "record": "r-1b7da66e7aee",
   "kind": "negative-result",
   "what": "Exact future prediction is proved impossible under the fixed threshold-history observation contract.",
   "quote": "A universal exact-future guarantee is therefore impossible for that observation contract.",
   "cluster": "october-edition",
   "n": 222
  },
  {
   "record": "r-288afeeb8dda",
   "kind": "negative-result",
   "what": "Broad training from scratch fails the easiest pattern: every new recurrent checkpoint gets 0/8 exact basic-pulse forecasts.",
   "quote": "All six new recurrent final checkpoints score 0/8 exact basic-pulse forecasts.",
   "cluster": "october-edition",
   "n": 223
  },
  {
   "record": "r-288afeeb8dda",
   "kind": "negative-result",
   "what": "The gain in exact Level 1 forecasts comes from one seed, so the transfer claim is withheld.",
   "quote": "No reliable exact-transfer claim.",
   "cluster": "october-edition",
   "n": 224
  },
  {
   "record": "r-288afeeb8dda",
   "kind": "negative-result",
   "what": "The dense baseline beats the eight-observer model on trained-band bit forecasts.",
   "quote": "Dense performs better on trained-band bit forecasts, and on exact L1 forecasts in its L1-only branch.",
   "cluster": "october-edition",
   "n": 225
  },
  {
   "record": "r-a1de2c115537",
   "kind": "negative-result",
   "what": "A capacity bound limits the wave-encoding idea: no fixed-size lossless wave state holds unboundedly many meanings.",
   "quote": "This rules out a fixed-size, fixed-precision, lossless wave encoding of arbitrarily many distinguishable meanings.",
   "cluster": "october-edition",
   "n": 226
  },
  {
   "record": "r-f2105c69edc2",
   "kind": "failed-attempt",
   "what": "The first 3D Yee solver missed the exact slab answer by 0.565 pp, and patterned R+T came to 100.124%.",
   "quote": "The finest numerical slab T of 95.609% is still 0.565 percentage points away.",
   "cluster": "october-edition",
   "n": 227
  },
  {
   "record": "r-e2a666a8bde5",
   "kind": "negative-result",
   "what": "Exact theorem: a static clock-rate factor is the same as ordinary Maxwell with rescaled constitutive coefficients, so the spectra cannot reveal a dimension.",
   "quote": "An extra spatial dimension is not identified by these spectra.",
   "cluster": "october-edition",
   "n": 228
  },
  {
   "record": "r-b3cababe16e2",
   "kind": "negative-result",
   "what": "The unique-dimensional-interpretation gate fails: an ordinary eight-Lorentz material reproduces the clock model exactly.",
   "quote": "Thus this calculation cannot identify extra spatial dimensions.",
   "cluster": "october-edition",
   "n": 229
  },
  {
   "record": "r-b3cababe16e2",
   "kind": "failed-attempt",
   "what": "Six fits ran out of the 160-evaluation optimizer budget; the original records were kept.",
   "quote": "Six original extended-model fits on conventional noisy data exhausted the original 160-evaluation budget.",
   "cluster": "october-edition",
   "n": 230
  },
  {
   "record": "r-493d03e8ea7d",
   "kind": "repair",
   "what": "Incident-wave extractor bug fixed: E was compared with H without removing the Yee cosine factor, so some reflected light leaked into the incident estimate.",
   "quote": "The incident-wave extractor now accounts for the electric/magnetic Yee offsets.",
   "cluster": "october-edition",
   "n": 231
  },
  {
   "record": "r-493d03e8ea7d",
   "kind": "repair",
   "what": "The mesh-dependent sponge was replaced with a matched convolutional PML.",
   "quote": "A z convolutional PML replaces the original per-step sponge.",
   "cluster": "october-edition",
   "n": 232
  },
  {
   "record": "r-493d03e8ea7d",
   "kind": "negative-result",
   "what": "The disagreement between the two solvers is kept rather than hidden; no rigorous continuum error bound exists.",
   "quote": "The corrected N=96 FDTD patterned transmission still differs from the K=24 Fourier result by 0.099918 percentage points.",
   "cluster": "october-edition",
   "n": 233
  },
  {
   "record": "r-e38932881878",
   "kind": "correction",
   "what": "Agents are told that the older README statements on slab errors and optimizer failures are historical and were corrected by the audit.",
   "quote": "Older README statements about unresolved slab errors and six selected optimizer failures describe historical runs; the error audit supplies the later corrections.",
   "cluster": "october-edition",
   "n": 234
  },
  {
   "record": "r-985850180fe4",
   "kind": "negative-result",
   "what": "An intensity-only channel cannot tell clockwise from counter-clockwise rotation, however many samples are taken.",
   "quote": "More samples of the wrong observable do not repair that hidden direction.",
   "cluster": "october-edition",
   "n": 235
  },
  {
   "record": "r-985850180fe4",
   "kind": "negative-result",
   "what": "A counterexample to 'measurement needs added energy': dephasing changes interference while mean energy stays fixed.",
   "quote": "This is a counterexample to the claim that a change in interference requires new energy in the observed subsystem.",
   "cluster": "october-edition",
   "n": 236
  },
  {
   "record": "r-2fd10abfc4e7",
   "kind": "negative-result",
   "what": "Rates fitted at zero oscillator strength carry no information and are rejected.",
   "quote": "O05,Zero oscillator strength leaves rates identifiable,M,Rejected by zero derivatives",
   "cluster": "october-edition",
   "n": 237
  },
  {
   "record": "r-art-state-of-the-theory",
   "kind": "negative-result",
   "what": "None of the 57 engine records qualifies for a new measured physical prediction.",
   "quote": "None of the 57 current engine records is admitted as a new measured physical prediction under the strengthened content-bound gate.",
   "cluster": "october-edition",
   "n": 238
  },
  {
   "record": "r-art-state-of-the-theory",
   "kind": "failed-attempt",
   "what": "The damaged Fixed Grid 0.24 archive could not be restored; 0.25.0 is a new reconstruction, and the lost bytes are recorded as lost.",
   "quote": "The original damaged 0.24 archive has not been restored; five older files and trailing historical content remain lost.",
   "cluster": "october-edition",
   "n": 239
  },
  {
   "record": "r-art-aharonov-bohm",
   "kind": "failed-attempt",
   "what": "AB Continuum Report (r-d849f62b8737): the first frozen spatial-convergence gate failed and stays in the record.",
   "quote": "Full-wave spatial reduction ratios of roughly 2.17–2.20 missed the first frozen minimum of 2.5.",
   "cluster": "october-edition",
   "n": 240
  },
  {
   "record": "r-art-aharonov-bohm",
   "kind": "negative-result",
   "what": "AB Lens Results (r-22f8f5d89f73): the radial-dilation estimator was unstable on historical frames.",
   "quote": "A simple radial-dilation estimator proved unstable on nickel-ring profiles, explaining only about 9.7–17.9% of processed radial contrast.",
   "cluster": "october-edition",
   "n": 241
  },
  {
   "record": "r-art-aharonov-bohm",
   "kind": "correction",
   "what": "AB Lens Results (r-22f8f5d89f73): the published Lentzen sign correction was reproduced and credited as prior work, not claimed as a discovery.",
   "quote": "The lens audit reproduced the published Lentzen correction to an ideal toroidal-lens calculation.",
   "cluster": "october-edition",
   "n": 242
  },
  {
   "record": "r-art-hubble",
   "kind": "negative-result",
   "what": "The early wave-background models matched the ruler proxy but missed the acoustic angle.",
   "quote": "The first wave-background models matched a supplied ruler target while missing the acoustic angle.",
   "cluster": "october-edition",
   "n": 243
  },
  {
   "record": "r-art-hubble",
   "kind": "negative-result",
   "what": "Three frozen candidates failed the full-spectrum challenge.",
   "quote": "Their temperature spectra differed from the reference by roughly 5.41–8.12% RMS, much more than their observed numerical-precision sensitivity.",
   "cluster": "october-edition",
   "n": 244
  },
  {
   "record": "r-art-hubble",
   "kind": "negative-result",
   "what": "Hubble Withheld Test Report (r-6a3617d9db79): with local H₀ withheld, the searches did not single out the local value.",
   "quote": "The bounded searches therefore did not select the local expansion value uniquely.",
   "cluster": "october-edition",
   "n": 245
  },
  {
   "record": "r-art-hubble",
   "kind": "failed-attempt",
   "what": "Hubble Tau Shortcut Report (r-674ec0629256): the full-spectrum rescaling proxy failed its frozen tolerance.",
   "quote": "a proposed full-spectrum rescaling failed its frozen deviance tolerance: a maximum error of 4.3053 exceeded 2.",
   "cluster": "october-edition",
   "n": 246
  },
  {
   "record": "r-art-hubble",
   "kind": "failed-attempt",
   "what": "Hubble Neutrino Budget Report (r-0d5e20fd16a6): two score refinements failed their frozen tolerance.",
   "quote": "Two score refinements failed their frozen tolerance.",
   "cluster": "october-edition",
   "n": 247
  },
  {
   "record": "r-art-measurement",
   "kind": "repair",
   "what": "Evidence admission repaired: the earlier path accepted declarations without reading the evidence; it now binds hashes, chronology and calibration.",
   "quote": "The earlier admission path could accept a complete set of declarations without reading the referenced evidence.",
   "cluster": "october-edition",
   "n": 248
  },
  {
   "record": "r-art-measurement",
   "kind": "negative-result",
   "what": "Synthetic demonstration: treating shared calibration as independent collapses nominal 95% coverage to 35.80%.",
   "quote": "In the 32-repeat control, retaining shared calibration gave 95.55% coverage; incorrectly treating it as independent gave 35.80%.",
   "cluster": "october-edition",
   "n": 249
  },
  {
   "record": "r-art-identifiability",
   "kind": "negative-result",
   "what": "Centroid Ranging Challenge (r-48aa94a36b73): an ordinary 3D source reproduces the hidden-coordinate mean exactly.",
   "quote": "Better centroid precision alone cannot distinguish two models with exactly the same mean.",
   "cluster": "october-edition",
   "n": 250
  },
  {
   "record": "r-art-identifiability",
   "kind": "negative-result",
   "what": "Causal Pair Report (r-b3fa49ed3ab2): a detector-side rival reproduces the exchange readout exactly.",
   "quote": "An arm-aware detector or preparer can reproduce the exchange readout exactly.",
   "cluster": "october-edition",
   "n": 251
  },
  {
   "record": "r-art-identifiability",
   "kind": "negative-result",
   "what": "Causal Pair Report (r-b3fa49ed3ab2): one primary flag is reported as uncorroborated.",
   "quote": "One stationary-ground primary flag remained without corroboration.",
   "cluster": "october-edition",
   "n": 252
  },
  {
   "record": "r-art-questions-and-meaning",
   "kind": "negative-result",
   "what": "Bible Key Stress Test (r-31f4752788b0): the spelling-based π decoder failed on the parallel passage, and the failure was kept.",
   "quote": "A fixed spelling-based numerical rule gave a close approximation to π in Kings but failed in the parallel Chronicles account.",
   "cluster": "october-edition",
   "n": 253
  },
  {
   "record": "r-art-questions-and-meaning",
   "kind": "negative-result",
   "what": "Job38 Optical Challenge (r-85948b377cdd): a wrong surface-normal model survived image holdouts.",
   "quote": "a wrong-normal model can survive image holdouts when illumination and calibration change with it.",
   "cluster": "october-edition",
   "n": 254
  }
 ]
}
