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Paper III

Scale-Resolved State Dynamics — external audit instrument

Paper III is frozen and published. The site uses it only as an external arithmetic and resolution-audit instrument applied to separately defined theories. The site does not modify, enlarge, reinterpret, or replace its ontology, definitions, theorem package, terminology, or application boundary.

Frozen SRSD: lossless resolution in three-dimensional space. A cubic lattice with origin O = (0,0,0). A blue vector Δ_s d runs from the origin to a lattice corner P. A highlighted cell sits at P. A red residual vector ρ runs from P to a point y inside the cell. Reconstruction: y = Δ_s d + ρ with 0 ≤ ρ_i < s_i. Same quotient d means the same cell, not the same point.
Frozen SRSD in R3\mathbb{R}^3. Encoder Es(y)=(d,ρ)E_s(y)=(d,\rho) with reconstruction y=Δsd+ρy=\Delta_s d+\rho and 0≤ρi<si0\le\rho_i<s_i. Same quotient dd means the same cell—not the same point.

Encoder and decoder

For a positive scale ss, the encoder and decoder are Es(x)=(⌊x/s⌋, x−s⌊x/s⌋)E_s(x)=\bigl(\lfloor x/s\rfloor,\, x-s\lfloor x/s\rfloor\bigr)and Ds(d,ρ)=sd+ρD_s(d,\rho)=sd+\rho, with residual in [0,s)[0,s). That pair is coordinatewise division with remainder; it is a standard construction. Displayed wording on this page is subordinate to the frozen source.

Applying SRSD to an admissible numerical object C ∈ ℝᵐ proves only D_s E_s(C) = C. The same identity holds for every admissible numerical object in that domain. That is generic exact representability, not a mathematical connection between cubature and SRSD.

One external SRSD audit

Frozen encoder EsE_s applied to the already-specified product QdQd at resolution s=Ss=S. The identity at that scale is ES(Qd)=(d′,ρ)E_S(Qd)=(d',\rho). The normalized form is E1(qd)=(d′,ρ/S)E_1(qd)=(d',\rho/S). Both are generic exact representability of that number, not a mathematical connection that joins cubature to SRSD. Frozen SRSD is unchanged.

ES(Qd) = (d′, ρ) = (135, 639958766566422)

E1(qd) = (d′, ρ/S) = (135, 639958766566422/10^15)

reconstruction recovers Qd

The identity E1(λQdk)=(dk+1,uk)E_1(\lambda_Q d_k)=(d_{k+1},u_k) is an exact external representation of one Omega step. It does not identify SRSD with rational-base numeration.


Claim-classification taxonomy

Each map retains its own domain, codomain, claim, and evidence. No row is promoted by a global G₆ aggregate.

SRSD external-audit classification of published maps.
ComponentAudit classificationResult
D_s E_s = id and full-record reconstructionExact identityPass
Q/S Euclidean quotient–residual mapExact identityPass
⌊λ d⌋ = ⌊Qd/S⌋ on D₁₅Exact finite-domain equalityPass
First disagreement d* = 42,189,065Exact boundaryPass
Successor candidates on D₁₅Quotient-only equivalencePass, correctly scoped
First residual on D₁₅Exact injectivity/congruential theoremPass
Ω coefficient representation of ℚ(√5)Exact representation mapPass; not structural identity
Paper VII marked kernelIndependent Euclidean geometryConstruction-to-curve claimed; remaining notebook completion not claimed
Cubature resultsIndependent external theoryCorrectly separated from Ω₀ and SRSD
Frequency 22Certificate-backed finite theoremPass
X₂₃ and X₂₄Hosted existence theorem plus recovered exact certificatePython 3.11.2 PASS
10 ≤ f ≤ 21Recovered exact certificate package; not Paper VIPython 3.11.2 PASS
f ≥ 25ConjecturalCorrectly labeled

Source and listings

Condensed cross-language listing: SRSD_CONDENSED_CROSS.txt. That listing is not a theorem checker.

Paper III DOI

A later finite-domain successor search for the 15-bit floor map is recorded at /dynamics/successors. It does not modify, enlarge, or replace this frozen SRSD source. Current Omega/JPRV terminology, including first-residual injectivity on the 15-bit domain, is recorded at /dynamics/training.