TFPT scientific source excerpt Original repository path: experiments/theory-contracts/tfpt-unified-source-derivation-20261029/aps_source_review/ORIGINAL-HIGGS-FIBER-PROOF.txt Original file SHA-256: 67be41084a14e3934cbb2c743f3969c0443e5b9180b2f4cdeeed5a884d566a5e Inclusive original lines: 116-209 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. 000116 | 6. Source types before H integration 000117 | The printed v42 §027 master has only xi=(alpha,chi_geo,delta_ph,rho_vac). 000118 | It contains -logZrel, logdet, eta, U6 and vacuum terms. It is not a displayed 000119 | H-field source functional or displayed bare H action. rho_vac is NOT H's VEV. 000120 | The formula alone does not establish M=-W[0] or M=Legendre Gamma. The correct 000121 | field source remains original §035 with actual local H arguments and measure. 000122 | R026's Z_H[J-j|A] integrates H FIRST in the affine Yukawa case. The sign, 000123 | counting and full determinant factor in (3) are not by themselves an 000124 | identification with an integrated fermion contribution to M. 000125 | Thus neither (5) nor (7) may simply be added to Gamma_grav or used to call 000126 | an inverse bare Hessian the full G_H. The relative Z and original bound 000127 | reference can contribute to the same H coefficient. They must be retained. 000128 | 000129 | 7. Decisive original local residue coefficient match 000130 | Read both the v42 original and its v45 metrology source split. The same 000131 | printed local residue equations give 000132 | ED_bulk=-int sqrt(g)[R/(24pi^2)+u/(48pi^2)], 000133 | G4_bulk=int sqrt(g)[|DPhi|^2/(16pi^2)+u^2/(16pi^2) 000134 | +R u/(96pi^2)+...], 000135 | Gamma_grav=-6 chi_geo^2 ED+G4. (9) 000136 | At constant chi>0, flat R=0, the displayed H bulk polynomial therefore is 000137 | P_bulk(u)=+a u+b u^2, a=chi^2/(8pi^2),b=1/(16pi^2). (10) 000138 | The SAME source prints a target with -muPhi^2(chi)u+lambda u^2 and states 000139 | muPhi^2(chi0)=chi0^2 wH^2/(8pi^2)>0,lambda=b. (11) 000140 | At a fixed common field normalization, the target potential is 000141 | V_target=-a wH^2 u+b u^2. 000142 | The printed later Gamma_grav low-curvature integrand uses -V, so it would 000143 | instead require +a wH^2 u-b u^2. Neither is (10): the quadratic/quartic 000144 | relative sign of (10) is equal, whereas those of V and -V are opposite. 000145 | A common overall sign (including one ordinary Wick sign for a potential), 000146 | positive field normalization, or positive sheet weight cannot fix that 000147 | relative sign. A field rescaling changes the powers by c^2,c^4, both positive. 000148 | This is a precise inconsistency of a LITERAL IDENTIFICATION of these 000149 | specific displayed bulk formulas, not a TFPT no-go or a physical instability. 000150 | The source mixes sqrt(-g) and sqrt(g) and does not supply a map that resolves 000151 | this relative coefficient mismatch. Do not infer a Euclidean measure from 000152 | those names, nor silently reverse a sign in a paper. 000153 | 000154 | Matching the +V convention with the same u would need the already-original 000155 | remaining H response to supply 000156 | Delta P= -a(1+wH^2)u. (12) 000157 | Matching the -V convention instead requires 000158 | Delta P= a(wH^2-1)u-2b u^2. (13) 000159 | These are REQUIRED DIFFERENCES, not permitted new free counterterms. 000160 | The isolated polynomial (10) has its only real radial minimum at r=0; 000161 | this is not a conclusion about the whole original quantum vacuum. 000162 | H-independent U(chi), a constant zero-source normalization at fixed chi, 000163 | and positive canonical rescaling cannot supply (12) or (13). A genuinely 000164 | H-dependent relative/reference/eta contribution may matter; it is to be 000165 | computed, not presumed absent or assigned the required value. 000166 | Only muPhi^2 at chi0 is printed in (11). It does not alone fix off-shell 000167 | muPhi^2(chi), mixed H/chi Hessians or the dynamic gravity response. 000168 | 000169 | 8. Locality and common RP: narrowed question 000170 | The actual source already contains local V, |DPhi|^2, mixed chi/H and R u, 000171 | chi kinetic terms and U(chi). Such finite-jet densities have zero mixed 000172 | variation for supports strictly on disjoint reflected halves, away from 000173 | fixed planes and boundary collars. If the SAME full field reflection 000174 | intertwines the densities, they admit Vplus+ThetaVplus. Together with a 000175 | GIVEN joint graded RP reference and integrability/positive denominator, 000176 | R027 then applies. It does not derive RP of the gravity reference itself. 000177 | 000178 | Spectral notation is not a general nonlocality test. In a local finite-site 000179 | regulator Tr f(multiplication Phi) is local. The printed geometric definition 000180 | G4=FP_(s=0) Zrel(s) is not logdet=-zeta'(0). For standard elliptic fixed-domain 000181 | heat/zeta contracts the value at zero is a heat coefficient plus explicit 000182 | zero-mode/boundary data; eta and the actual relative regularization stay 000183 | separate. Conversely the master has a distinct logdet term and actual 000184 | moving Padm/APS/source/scale terms that require their own support test. 000185 | A nonzero disjoint-support mixed Hessian rules out a simple additive 000186 | half-action form for that contribution; it does NOT disprove RP. For fixed 000187 | domain and trace-class separated insertions, delta+delta- logdetK equals 000188 | Tr(K^-1 K+-)-Tr(K^-1 K+ K^-1 K-). Bound reference, scale and projector jets 000189 | must be included before making an original whole-source statement. 000190 | 000191 | 9. Progress and next original action 000192 | R028 closes the entire constant original96 H orbit and reduced determinant 000193 | consumer, including the explicit first matrix mass jet and full1D circle 000194 | mode sum under their stated premises. R029 excludes the literal same-field 000195 | bulk identification in (9)-(11); it does not reopen Yukawa/Flavor/Alpha. 000196 | F1 remains active. Do not scan more constant orientations or choose a new 000197 | H potential. Evaluate the actual original relative residue/reference 000198 | producer and the primitive-to-geometric field/continuation dictionary at 000199 | the FIRST H^2 coefficient, tracking canonical/sheet normalization and the 000200 | common sign of quadratic and quartic terms. Check whether the full source 000201 | contains a derived contribution satisfying (12) or (13), or identify which 000202 | printed coefficient/identification fails. Keep all existing Z[0], eta, 000203 | common field/state/reflection/time, P2 and word-memory results. 000204 | 000205 | Primary method check: Chamseddine/Connes/Marcolli, hep-th/0610241, 000206 | https://arxiv.org/html/hep-th/0610241 §§3.7.4,4.2,5.7.2. Their scalar mass 000207 | calculation retains both quadratic spectral and Majorana-dependent fourth 000208 | order contributions. This is a method/convention check, not borrowed TFPT 000209 | coefficients, a free profile choice or a new claim of novelty.