Follow the published construction into its registered claims, then explore reviewed research questions, attempts and the connections that remain open.
Quantum and boundary structure
The published foundation in this area
32 authored claim references lead into the original ledger and paper sections. This source record remains available even where no separate reviewed research packet is attached.
Finite E8, Pauli/Clifford, code, state, covariance, and instrument constructions supply internal quantum models and scoped guarantees. A code or successful channel is not yet a selected, repeatable physical source with the same parent dynamics.
Starting structure in the Atlas orientation
Concrete finite code and operator structures exist, with local results within explicitly specified source and instrument menus.
Which connection is sought
Open items include common physical preparation, source, interaction, repetition, record preservation, and connection to the TFPT parent.
How it connects
Codes and clocks specify internal information and symmetry structures; gravity additionally requires local geometry and dynamics.
Completeness only for the stated operator-compatibility class. Countermarks are not full P1 sources and need not obey the original polar rule. Unique distance minimization does not prove a physical law minimizing that distance or matrix positivity from reflection positivity.
Read the exact result, assumptions and evidence
Result
The entire stated native mark class is P=F-cc*, [c] in CP1(E+), or RP1 for real projectors. Every point gives the same quarter spectrum and square; q families are natively S3fix-equivariant. The native q/sigma stabilizer cannot remove the parameter. Original cpol=-sqrt(3/5)e0+sqrt(2/5)e1 and c=e0 differ exactly: HS squared4/5, marked-ray responses2/5 versus0. Uq is also the uniquely nearest isometry to actual orthonormalized Dq, with Frobenius cost7-2sqrt6.
Required assumptions
Actual native G31 event representation
Use the actual original Hamming/E8/J matrices and60 reflections, their four-dimensional action, characteristic P64=O2(G31), and existing S6 quotient. These are accepted mathematical core data, not a physical source derived from P1 in this round.
Symmetric quartic and actual erasure intertwiner
Use Sym^4 of the native four-representation, the actual five codeword sums, and the existing one-register erasure intertwiner. The symmetric tensor rule and its physical selection are not silently inferred from the full tensor product.
Original clock/simplex without an imposed polar mark
Retain actual normalized W6 simplex, sigma=(234), tau=(01), q=5. Consider ALL Hermitian rank2 projectors P with RanP inside Fixsigma, [P,tau]=0 and one positive/one negative tau eigenvalue on RanP. The original polar rule is a comparison point, not an imposed condition of this compatibility class.
Given original code/decoder and logical operation. No selection of H, logarithm branch, physical time normalization or actual intervention permission. Unitary class, not all CPTP instruments. Native group action differs from the decoder by an explicit gauge factor whose physical compensation remains open.
Read the exact result, assumptions and evidence
Result
The actual decoder D(A)=W(A tensor I4)W* is an injective corner *-homomorphism. Thus D(A)D(B)=D(AB), product preservation of unitary complement extensions and exp(-itD(H))=D(exp(-itH))+I-Pi follow without a new composition rule for given H. Every unitary lift with full branchwise erasure compatibility is necessarily and sufficiently R tensor V4, forced by the commutant rather than fitted. On C64 an arbitrary unitary44-complement block remains.
Required assumptions
Symmetric quartic and actual erasure intertwiner
Use Sym^4 of the native four-representation, the actual five codeword sums, and the existing one-register erasure intertwiner. The symmetric tensor rule and its physical selection are not silently inferred from the full tensor product.
Original decoder and same native quarter polynomial
Fix original erasure decoder D(A)=W(A tensor I4)W* and its mark P220=P2 tensor I4. Substitute actual sigma20=sigma5 tensor bar(sigma4) and all four native reflection lifts of original tau5 into the existing R polynomial. This tests that continuation, not all coherent lifts.
Unitary continuation with full branchwise erasure action
Consider unitaries T on the actual erasure carrier satisfying T(rho tensor I4/4)T*=RrhoR* tensor I4/4 for every logical state rho and a given logical unitary R. This is a declared compatibility class, not a physical instrument rule derived from P1.
This excludes exactly the stated native polynomial continuation with the fixed decoder P220, not every coherent common-clock lift. The logical decoder does not prove original physical permission for the collective intervention.
Read the exact result, assumptions and evidence
Result
The existing three-register decoder derives encoded R5 tensor I4. Substituting actual sigma20 and all four native tau20 into the same R polynomial with original decoder marking gives unitarity and the correct square but fails common erasure action. The pure input rho=(I-F_sigma5)(I+s23)/2 yields output-difference eigenvalues +1/4,+1/4,-1/4,-1/4 and16 zeros: trace distance1/2 for all four lifts.
Required assumptions
Actual native G31 event representation
Use the actual original Hamming/E8/J matrices and60 reflections, their four-dimensional action, characteristic P64=O2(G31), and existing S6 quotient. These are accepted mathematical core data, not a physical source derived from P1 in this round.
Symmetric quartic and actual erasure intertwiner
Use Sym^4 of the native four-representation, the actual five codeword sums, and the existing one-register erasure intertwiner. The symmetric tensor rule and its physical selection are not silently inferred from the full tensor product.
Original simplex and positive polar rule
Use the actual W6 simplex and raw metric, unchanged native three-clock and original positive polar prescription at one of its three marked fixed points. The prescription and its physical selection are not derived from P1.
Original decoder and same native quarter polynomial
Fix original erasure decoder D(A)=W(A tensor I4)W* and its mark P220=P2 tensor I4. Substitute actual sigma20=sigma5 tensor bar(sigma4) and all four native reflection lifts of original tau5 into the existing R polynomial. This tests that continuation, not all coherent lifts.
Classification of code-preserving product unitaries and stated classical mixtures. Collective operations, ancillas, general LOCC, postselection and protocols leaving the code temporarily are not excluded.
Read the exact result, assumptions and evidence
Result
All six actual code-projector pair marginals are (I+Swap)/4. Every code-preserving U1 tensor U2 tensor U3 tensor U4 therefore has projectively equal factors. The identical local stabilizer is K=U(1)G31 by leakage Gram32I15, a finite determinant slice and NRS6.5. R5 lies projectively outside logical S6, excluding every such product lift. Rank-one Choi also excludes convex native-word-channel mixtures reproducing Ad_R5 on all inputs.
Required assumptions
Actual native G31 event representation
Use the actual original Hamming/E8/J matrices and60 reflections, their four-dimensional action, characteristic P64=O2(G31), and existing S6 quotient. These are accepted mathematical core data, not a physical source derived from P1 in this round.
Symmetric quartic and actual erasure intertwiner
Use Sym^4 of the native four-representation, the actual five codeword sums, and the existing one-register erasure intertwiner. The symmetric tensor rule and its physical selection are not silently inferred from the full tensor product.
Existing logical clock and charge marking
Retain the existing logical labels weak0/1, color2/3/4, source point5 and Y5,R5,sigma5. Equivalence under their stabilizer is not automatically an equivalence of lifts commuting with the original native four/P1 clock.
Actual Clifford identification and finite-overgroup theorem
Retain the actual concrete identification of <G31,zeta8 I4> with complex Clifford X2. Apply NRS6.5 only to the proved finite determinant slice; a group-order match alone does not suffice.
Positive polar rule and physical interpretation remain inputs. One mark orbit does not prove every anisotropic source invariant or select a physical state. The mark remains distinct from all15 matching-response projectors.
Read the exact result, assumptions and evidence
Result
In consistent original N coordinates P2(q)=F_sigma-c_q c_q*, c_q=[n2+n3+n4-3(sqrt(6)-1)n_q/5]/sqrt(3). For q=5 this is the actual existing mark without SM charges. All three clock-fixed points form one mark orbit under actual native reflection lifts commuting with sigma4. N=O C^T, O=-rho_C(reverse), transports all labels together.
Required assumptions
Actual native G31 event representation
Use the actual original Hamming/E8/J matrices and60 reflections, their four-dimensional action, characteristic P64=O2(G31), and existing S6 quotient. These are accepted mathematical core data, not a physical source derived from P1 in this round.
Symmetric quartic and actual erasure intertwiner
Use Sym^4 of the native four-representation, the actual five codeword sums, and the existing one-register erasure intertwiner. The symmetric tensor rule and its physical selection are not silently inferred from the full tensor product.
Original simplex and positive polar rule
Use the actual W6 simplex and raw metric, unchanged native three-clock and original positive polar prescription at one of its three marked fixed points. The prescription and its physical selection are not derived from P1.
Classification of this explicit residual class, not all sources. No original physical permission for the coherent Kraus events or selection of gamma.16-record equivariance is sectorwise/on the block algebra, not on extra End(H29) coherences. G31 covariance does not prove covariance under arbitrary coherent clock polynomials.
Read the exact result, assumptions and evidence
Result
CPTP and Tr4 Phi(X)=Tr4 X for all joint X force Phi=id5 tensor D by the multiplicative domain; factorization is not a fitted ansatz. Native G31 covariance forces D=Dq with -1/15<=q<=1. Continuous semigroups have q(t)=exp(-gamma t), gamma>=0. The original central J-character projector and Paulis realize this in the coherent block-algebra menu with common normalized branchwise erasure records; the gauge correlator is q(t).
Required assumptions
Actual native G31 event representation
Use the actual original Hamming/E8/J matrices and60 reflections, their four-dimensional action, characteristic P64=O2(G31), and existing S6 quotient. These are accepted mathematical core data, not a physical source derived from P1 in this round.
Symmetric quartic and actual erasure intertwiner
Use Sym^4 of the native four-representation, the actual five codeword sums, and the existing one-register erasure intertwiner. The symmetric tensor rule and its physical selection are not silently inferred from the full tensor product.
Complete logical nondisturbance and native covariance
A CPTP residual channel Phi on V5 tensor bar(V4) preserves Tr4 Phi(X)=Tr4 X for ALL joint X and is covariant under the native G31 product representation. This is stronger than preservation only of erasure states rho tensor I4/4 and defines an explicit conditional process class.
Extended coherent source-algebra operation menu
For realization of the residual channel, unitary elements of the represented group C*-algebra may serve as Kraus events. This mathematical menu does not assert physical permission derived from P1. The block algebra or each sector is considered; extra coherences between inequivalent representations are not automatically accessible observables.
Unique continuation within exactly this menu, not selection of that menu, complete generators or their physical time scale from P1. A few populations or a single finite-time channel are weaker inputs.
Read the exact result, assumptions and evidence
Result
The native rate map has rank55 on the four and15 on the five, jointly rank60 with60 columns. Its joint nullity is0: fixing complete generators excludes a hidden twenty-rate twin inside the60-reflection Poisson menu. The old coherent S3 sign twin belongs to a different event menu and additionally violates the actual branchwise erasure contract, with trace distance1/4 for an explicit input.
Required assumptions
Actual native G31 event representation
Use the actual original Hamming/E8/J matrices and60 reflections, their four-dimensional action, characteristic P64=O2(G31), and existing S6 quotient. These are accepted mathematical core data, not a physical source derived from P1 in this round.
Symmetric quartic and actual erasure intertwiner
Use Sym^4 of the native four-representation, the actual five codeword sums, and the existing one-register erasure intertwiner. The symmetric tensor rule and its physical selection are not silently inferred from the full tensor product.
Complete four/five generators with exactly60 reflection jumps
Consider only Poisson generators sum_j lambda_j(Ad_rj-id) over the actual60 native reflections, with complete continuous-time four- and five-generators fixed. No extra Hamiltonians, coherent algebra events, or generators inferred uniquely from one finite-time channel.
Explicit operator identification and one logical equivalence class, not six independent physical options. A common native-four/P1 clock continuation and the twenty-lift of a specified coherent R polynomial are not thereby derived.
Read the exact result, assumptions and evidence
Result
For each of the six remaining F20 representatives actual native C,G satisfy C^5=G^4=I and GCG^-1=C^2. Simultaneous intertwiners to the original v419 carrier have solution dimension1 and rank4. The six representatives form ONE orbit of the existing logical stabilizer, already S2×C3 acts regularly. R5 is not a native group word by an exact centralizer test; the compiler clock instead maps to an order3 operator on the quartic code. The canonical cyclotomic trace metric is carried isometrically into the native four-metric by normalized intertwiners, leaving an overall phase.
Required assumptions
Actual native G31 event representation
Use the actual original Hamming/E8/J matrices and60 reflections, their four-dimensional action, characteristic P64=O2(G31), and existing S6 quotient. These are accepted mathematical core data, not a physical source derived from P1 in this round.
Symmetric quartic and actual erasure intertwiner
Use Sym^4 of the native four-representation, the actual five codeword sums, and the existing one-register erasure intertwiner. The symmetric tensor rule and its physical selection are not silently inferred from the full tensor product.
Existing logical clock and charge marking
Retain the existing logical labels weak0/1, color2/3/4, source point5 and Y5,R5,sigma5. Equivalence under their stabilizer is not automatically an equivalence of lifts commuting with the original native four/P1 clock.
No unique physical3+2 marking, no spacetime dimension29 and no physical5/4 normalization derived from dimension ratios. The associative-algebra normalizer is larger than the group normalizer. The existing physical mark is therefore not simply an as-yet-unselected member of those15 responses.
Read the exact result, assumptions and evidence
Result
The actual4-,5-,20-representations are distinct irreducibles. Their group algebra is M4+M5+M20 with commutant C^3 and group normalizer U(1)^3 rho(G31). The algebra quotient preserves these word representations but is not tensor-closed by itself. The15 original matching involutions yield a canonical transitive family of rank2 projectors with rank3 complements. Joint group-invariant states retain free positive block weights. The decisive exact comparison nevertheless gives P2 != Q_t for ALL15 projectors of the native response orbit: color-S3 commutation excludes this identification structurally.
Required assumptions
Actual native G31 event representation
Use the actual original Hamming/E8/J matrices and60 reflections, their four-dimensional action, characteristic P64=O2(G31), and existing S6 quotient. These are accepted mathematical core data, not a physical source derived from P1 in this round.
Symmetric quartic and actual erasure intertwiner
Use Sym^4 of the native four-representation, the actual five codeword sums, and the existing one-register erasure intertwiner. The symmetric tensor rule and its physical selection are not silently inferred from the full tensor product.
Shared mathematical cause within the given core. The physical symmetric rule, origin of the core data, and an E8-current/fermion identification are not derived.
Read the exact result, assumptions and evidence
Result
P64 is characteristic as O2(G31). Fix_P64(Sym^4 V4) is exactly the actual five-code; the original codeword sums give its real intertwiner rather than a fitted embedding. The existing erasure intertwiner forces rho20(g)=rho5(g) tensor bar(rho4(g)) for the same words. The full fourth tensor power has Pauli fixed rank16, whereas the symmetric fourth power has rank5.
Required assumptions
Actual native G31 event representation
Use the actual original Hamming/E8/J matrices and60 reflections, their four-dimensional action, characteristic P64=O2(G31), and existing S6 quotient. These are accepted mathematical core data, not a physical source derived from P1 in this round.
Symmetric quartic and actual erasure intertwiner
Use Sym^4 of the native four-representation, the actual five codeword sums, and the existing one-register erasure intertwiner. The symmetric tensor rule and its physical selection are not silently inferred from the full tensor product.
Exact conditional internal shape selector and scoped control. No P1-derived field/potential, complete TFPT dynamical uniqueness, physical Higgs/gauge identification or T1–T8 closure.
Read the exact result, assumptions and evidence
Result
For every traceless Hermitian rank-five endomorphism with trX²=1, globally7/30≤trX⁴≤13/20. Exhaustive stationary-spectrum classification gives equality below only at2+3 and above at1+4. The even conjugation-invariant bounded-below controls -t+t²±trX⁴ therefore favor different splits, without an inserted preferred direction. The primitive spectral functional differentiates a supplied deformation; a positive profile does not imply a positive fourth-order shape term. Original X, trace constraint, deformation and sign remain to be derived.
The diagnostic grants X=X* on an unmarked complex rank-five carrier, trX=0 and trX²=1 for shape classification. It studies trX⁴ or -t+t²±trX⁴, t=trX². Field, trace constraint, contraction, sign, even symmetry and dynamics are not derived here from P1.
Do not identify source types
Observable algebra, OS reflection, state, collar operator, time evolution, carrier connection, family holonomy, and readout are distinct data until an original map relates them.
Only excludes these general composition/cyclicity conditions as sufficient algebra selectors. The new pair is not a same-center counterexample or full physical TFPT countermodel. Additional principles such as purification remain conditional, not P1-derived.
Read the exact result, assumptions and evidence
Result
The existing operational context-quotient/GNS result remains conditional on the original operation alphabet. Classical and quantum models obey general composition, causality and local tomography. C4 and L(M2) additionally share HS(M2), J and Omega, cyclic/separating faithfulness and order zero, yet only the latter is noncommutative; their centers differ. A coherent two-channel operation separates a restricted population protocol (double pulse:1 versus1/2), but source availability must first be derived.
Required assumptions
Explicit finite process and cyclicity controls
The controls compare finite classical and complex-quantum processes and C4 versus L(M2) on HS(M2), J(X)=X*, Omega=I/sqrt2. Both cyclic/separating, faithful and order zero; the C4/M2 centers differ. No complete P1/P2, OS, seam or minimality countermodel is asserted.
Do not identify source types
Observable algebra, OS reflection, state, collar operator, time evolution, carrier connection, family holonomy, and readout are distinct data until an original map relates them.