TFPT scientific source excerpt Original repository path: experiments/theory-contracts/tfpt-unified-source-derivation-20261029/aps_source_review/ORIGINAL-HOLONOMY-E0-SOURCE-REVIEW.txt Original file SHA-256: 58933c7051e1b008adecf553a607a93be768e0bbcfec17c6a50428a190f0982b Inclusive original lines: 201-400 Line numbers below refer to the original source. This bounded excerpt is source evidence; it is not a new proof/checker run. Conversation metadata and personal execution details are omitted where indicated. 000201 | v v 000202 | reflected path groupoid --Hol_A--> SU(3) family fibers 000203 | 000204 | | claimed typed identification 000205 | v 000206 | 000207 | (Gamma_ij^min,nabla_F^star,e_i) --hard holonomy--> Y_f. 000208 | 000209 | The top square is proved exactly by (4)-(5). What remains is to locate in the 000210 | original source, or derive from its selector, the vertical identification that 000211 | sends the actual v117 paths and horizontal frames to the physical 000212 | Gamma_ij^min and e_i. If such an identification includes a coordinate-indexed 000213 | family of paths, it supplies Y_f(z) and makes (8) a derived whole-source map. 000214 | If it contains only the finite canonical edge set stated in (1), the output is 000215 | the fixed hard-holonomy matrix and no nonconstant Phi field follows. 000216 | 000217 | No physical P1 selection, new state, new time, new Majorana rule or freely 000218 | chosen Yukawa profile is claimed. 000219 | 000220 | 7. FIRST TYPE TEST: HOM(F,F) VERSUS THE BILINEAR DUAL LEG 000221 | 000222 | This section records the decisive correction to a generic SU(3) argument. 000223 | The actual v117 representation is not a generic complex SU(3) module. Its A4 000224 | monodromy is the complexification of the real signed-permutation rotation 000225 | representation. It therefore has a one-dimensional space of parallel 000226 | nondegenerate symmetric complex bilinear forms. In the signed horizontal 000227 | frame one may write a generator as 000228 | 000229 | B_0=I, R^T B_0 R=B_0 000230 | 000231 | for the V4 signs, the three-cycle P_c and the marked linear quarter matrix. 000232 | Thus F_v117 is self-dual as a flat complex local system. The absence of a 000233 | generic SU(3)-invariant two-tensor is not an exclusion in this actual finite 000234 | representation. 000235 | 000236 | 7.1 What the original hard-holonomy formula types 000237 | 000238 | The formula itself nevertheless chooses the Hom type. It uses one Hermitian 000239 | family bundle L_F, one canonical family basis {e_i}, and 000240 | 000241 | , H=Hol_Gamma(nabla_F^star) K_f^str in End(F). (9) 000242 | 000243 | The left and right word factors D_L,f and D_R,f are diagonal scalar path 000244 | weights. The source does not introduce separate F_L and F_R bundles, does not 000245 | declare the right endpoint to lie in F^*, and does not insert a bilinear 000246 | evaluation tensor between the two endpoints. Accordingly a common unitary 000247 | frame change acts by 000248 | 000249 | H -> R H R^(-1), (10) 000250 | 000251 | and the actual E0 anti-transport acts by the Hom law 000252 | 000253 | H -> D_E bar(H) D_E^(-1)=D_E bar(H)D_E^*. (11) 000254 | 000255 | This agrees with the original v252 Dirac block. There the same generation 000256 | index set labels nu_L,nu_R,e_L,e_R,u_L,u_R,d_L,d_R, and the particle block is 000257 | explicitly the Hermitian L<->R operator 000258 | 000259 | S_LR=Y, S_RL=Y^*. 000260 | 000261 | If the same family anti-transport D_E is used on L and R, its LR block obeys 000262 | (11). This is the old particlewise source typing. It should not be replaced by 000263 | a chirality-conjugate family action merely because another E8 realization 000264 | admits one. 000265 | 000266 | Direct sources: 000267 | 000268 | * documents/archive--tfpt-45--source_extracts--03_em_flavor_source/ 000269 | sections/004-source.tex:115-197 and sections/005-source.tex:252-267. 000270 | * verification/v252_full_finite_triple.py:7-24,63-115, 000271 | SHA256 820254440e178430422e50605067775656236602996307f67c9e69124ba5d163. 000272 | 000273 | 7.2 Native marked phase test 000274 | 000275 | In the calibrated horizontal frame the actual E0 factor is 000276 | 000277 | D_E=omega^2 S, S=diag(1,-1,1), omega^3=1. 000278 | 000279 | It satisfies two different identities: 000280 | 000281 | D_E^*D_E=I, D_E^T D_E=omega I. (12) 000282 | 000283 | Therefore the two proposed laws differ already on the identity holonomy: 000284 | 000285 | Hom: D_E I D_E^*=I, 000286 | bilinear: D_E I D_E^T=omega I. (13) 000287 | 000288 | The identity path must remain the identity under functorial transport. Hence 000289 | the raw hard holonomy cannot itself obey the second law. A bilinear reading 000290 | requires an additional self-duality leg B:F->F^* (or its inverse), carrying 000291 | the compensating E0 phase. This is the smallest native-marked distinction; it 000292 | uses the actual D_E, the actual Real/quarter composition E0=Q tau_0 and no 000293 | generic representation argument. 000294 | 000295 | 7.3 The actual self-duality leg and its one remaining phase 000296 | 000297 | For J_E(v)=D_E bar(v), a symmetric form B=cI is E0-real precisely when 000298 | 000299 | B(J_Ev,J_Ew)=bar(B(v,w)) 000300 | 000301 | or equivalently 000302 | 000303 | D_E^T B D_E=bar(B), c omega=bar(c). (14) 000304 | 000305 | Thus the real-type representation does permit a repair. Equation (14) fixes 000306 | the phase of c up to a nonzero real scale; for example 000307 | 000308 | c=exp(-i pi/3) 000309 | 000310 | works; equivalently c=-omega. With such an E0-real b:F->F^*, set 000311 | 000312 | K=H B^(-1) : F^* -> F. 000313 | 000314 | Equation (14) implies 000315 | 000316 | D_E^(-1)B^(-1)=bar(B)^(-1)D_E^T, 000317 | 000318 | and therefore 000319 | 000320 | K^E=H^E B^(-1) 000321 | =D_E bar(H)D_E^(-1)B^(-1) 000322 | =D_E bar(K)D_E^T. (15) 000323 | 000324 | Thus converting H by the E0-real b leg makes the Hom and bilinear 000325 | transformation rules exactly equivalent. If instead B_0=I is held 000326 | fixed in the displayed signed frame, E0 transports it with the nontrivial 000327 | character omega, and the two matrix laws differ by exactly that character. 000328 | 000329 | The decisive source question is therefore no longer whether a self-duality 000330 | exists. It does. The question is whether the original source fixes the phase 000331 | in (14), and inserts that particular b leg into the Yukawa evaluation. 000332 | 000333 | The currently read sources do not do so: 000334 | 000335 | * The sign-line source fixes the three two-torsion local systems and their 000336 | unitary flat structures, but explicitly says that equality with a particular 000337 | original flat fiber basis still needs constant frame calibration. 000338 | * Its Real/quarter review retains two lift choices and states that complex 000339 | frame phases change the antilinear matrix without changing the line class. 000340 | It therefore does not canonically choose the scalar c in (14). 000341 | * The algebraic G construction fixes a useful normalized fundamental matrix, 000342 | but the invariant complex bilinear is still unique only up to a nonzero 000343 | scalar. The positive Hermitian metric fixes adjoints and norms; it does not 000344 | fix this complex bilinear phase. 000345 | 000346 | Relevant source boundaries: 000347 | 000348 | * experiments/theory-contracts/elliptic-moebius-source-bridge-20261026/ 000349 | SIGN-LINE-COVER-DICTIONARY.txt:7-40,56-87,127-136, 000350 | SHA256 555f75a2d3c67347fa5f8e3c4f7f46e79d94cb4172176c84010224585dc842e7. 000351 | * aps_source_review/C3-REAL-QUARTER-COMPATIBILITY-REVIEW.txt:21-57,59-84, 000352 | SHA256 e118c54415cb2b80174a4950b146e8050f787bc1f536f3fb0068054f6420a242. 000353 | 000354 | 7.4 The existing Yukawa top form is not yet this bridge 000355 | 000356 | The carrier formalization contains an alternating top form 000357 | 000358 | omega_Y : Lambda^3 E -> K 000359 | 000360 | and its contraction E->(Lambda^2 E)^*. This is a genuine invariant 000361 | three-tensor and is compatible with a three-dimensional self-duality story. 000362 | However, its own interface states explicitly that deriving the canonical form 000363 | from the TFPT boundary kernel is still the upstream physics question. It does 000364 | not identify E with the v117 family local system, does not provide a selected 000365 | vector/Higgs evaluation that converts an endomorphism H into a two-leg form, 000366 | and does not fix the E0 phase (14). A top form alone cannot supply that missing 000367 | one-leg contraction. 000368 | 000369 | See: 000370 | 000371 | * experiments/lean4-carrier-rigidity/TfptCarrier/ 000372 | YukawaTrilinearForm.lean:76-115, 000373 | SHA256 c64e60913792d5627eae8ac58f4d69336598f07bb9593b5ddd43a660618d2d91. 000374 | * the same directory, BoundaryYukawaKernelInterface.lean:15-57,69-93, 000375 | SHA256 63cbb56007de24900f1cd632751b85ccbd4cafbab2e368a689b7987e4c7cf1ac. 000376 | 000377 | 7.5 Refined verdict 000378 | 000379 | The original hard-holonomy and v252 source are presently typed as Hom(F,F) 000380 | with the Hermitian adjoint on the reverse LR block. The new chirality-dependent 000381 | E8 action, which yields D_E bar(Y)D_E^T, is a different representation choice 000382 | unless its self-duality/evaluation leg is supplied. 000383 | 000384 | The actual finite v117 local system makes that bridge mathematically possible: 000385 | its parallel symmetric form is unique up to scale, and E0 fixes the required 000386 | phase condition (14). But the original sources read here do not yet select 000387 | that phase or insert the leg into the hard-holonomy Yukawa rule. Therefore the 000388 | omega in the bilinear law is neither an inconsistency nor already a derived 000389 | physical phase. It is the exact marker of the still missing original pairing 000390 | leg. 000391 | 000392 | 8. Closed-triangle character test: the v117 identity is too small for the 000393 | displayed CKM phase 000394 | 000395 | 8.1 The three paths are asserted to form a genuine closed loop 000396 | 000397 | The original flavor source first defines Gamma_ij^min as canonical admissible 000398 | edges of one D4-invariant geodesic spine. It then states, without an extra 000399 | endpoint or evaluation operator, 000400 |