TFPT scientific source excerpt Original repository path: experiments/theory-contracts/original-local-source-variable-background-20261102/WEIGHT.txt Original file SHA-256: 7857f9185fc245b3de23789bcf1020b0b88e64dfd814d6ba71004e7d185fd345 Inclusive original lines: 1-200 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. 000001 | REFERENCE TRANSPORT G: FORCED WEIGHTS FROM THE ACTUAL ACTION CONSTRUCTORS 000002 | 2 November2026. relational_logic. Canonical sources unchanged. 000003 | Live entry plan84, Atlasa30058cba8bd21f1e5fd77b9; R101/R102 and L20261102C–F retained. 000004 | 000005 | RESULT 000006 | 000007 | There IS an exact positive reference-constructor connection in the Original. 000008 | Both the primitive spectral seed and the older geometric residue branch 000009 | are already differences of the SAME explicitly given operator functional. 000010 | Their relative spectral/geometric exponential weights are therefore fixed; 000011 | one must not introduce a new profile or subtract their reference a second 000012 | time. The older geometric branch jointly transports Einstein, Higgs, gauge 000013 | and curvature terms with the same coefficients and the bound reference. 000014 | 000015 | This solves the reference-action reconstruction at those actual displayed 000016 | spectral constructors. It does not identify their entire completed S_adm 000017 | with that spectral part alone. The Original explicitly introduces gauge 000018 | fixing, ghosts and compatible fluctuations later. The exact missing equality 000019 | for the proposed reference-state representation is not 'choose a new mu', 000020 | but the actual GIVEN reference caller omega_ref versus the Gibbs/source 000021 | functional of this same full reference action on the same fields. 000022 | The operative Seed supplies omega; it does not by its printed definition 000023 | rename that omega as omega_ref=Gibbs(F(D_ref)). A reference operator is not 000024 | itself that state identity. 000025 | 000026 | 1. THE PRIMITIVE SPECTRAL PART CAN BE RECONSTRUCTED EXACTLY 000027 | 000028 | Boundary001:302–315 gives, literally, 000029 | S_prim=Tr f(D_rel/chi)-Tr f(D_ref/chi)+i pi Deltaeta/2. 000030 | At a compatible finite regulator, with the original eta branch, define the 000031 | operator functional already displayed there 000032 | A_f,chi(T)=Tr f(T/chi)+i pi eta_Sigma(T)/2. 000033 | Where Deltaeta is the declared difference of the same eta functionals, 000034 | S_prim=A_f,chi(D_rel)-A_f,chi(D_ref). (1) 000035 | No new action or profile is selected: this is direct reconstruction from 000036 | the two printed terms. It is unique up to a common additive functional 000037 | that cancels identically between these same arguments. 000038 | 000039 | The first argument in(1) is the ORIGINAL D_rel. It must not be silently 000040 | changed to an uncompressed whole D or D_geo. The other agents are checking 000041 | the original pair/odd-operator dictionary. Equation(1) does not settle 000042 | that dictionary by renaming the operator. 000043 | 000044 | Consequently the relative primitive spectral weight is already forced: 000045 | R_spec=exp[-A_f,chi(D_rel)+A_f,chi(D_ref)]=exp(-S_prim). (2) 000046 | If the actual reference source is the Gibbs/source basis of the second 000047 | functional, (2) is inserted into THAT normalized reference functional. 000048 | There is then no additional division by the same reference partition 000049 | function. In that representation its normalization has already entered 000050 | omega_ref. Conversely, under the unweighted original integration basis, 000051 | one uses the actual absolute numerator weight and the original Z_ref 000052 | quotient. These are two correct representations once their basis is matched. 000053 | 000054 | This mathematical identity is valid before any assertion about infinite 000055 | trace convergence. On a source that only supplies a relative trace, one 000056 | must retain that relative functional rather than assign arbitrary separate 000057 | absolute infinities to its two terms. The actual regulator/APS/reference 000058 | contract remains attached. 000059 | 000060 | 2. THE OLDER GEOMETRIC GAMMA SOURCE GIVES A STRONGER COMMON CONSTRUCTOR 000061 | 000062 | Metrology001:30–67 puts D_geo and the DECLARED D_ref on the given graded 000063 | relative bundle with APS boundary conditions. D_geo is the Dirac-type 000064 | metric/spin/connection anchor; inner fluctuations of the same anchored 000065 | spectral datum generate the gauge sector. D_rel is comparison bookkeeping, 000066 | not a replacement local principal symbol. 000067 | 000068 | Metrology001:103–130 defines 000069 | Zeta_rel(s;sigma) 000070 | =Tr_rel[|D_sigma,geo+B_rel|^(-2s)-|D_ref|^(-2s)] 000071 | +i pi Deltaeta/2, 000072 | E_D=Res_(s=1)Zeta_rel, 000073 | Gamma_D4=FP_(s=0)Zeta_rel. 000074 | This is an actual SAME-FUNCTIONAL relative constructor, not a generic 000075 | proposal to build one. Its first operator is the printed anchored/fluctuated 000076 | D_sigma,geo+B_rel, and its second is the printed bound D_ref. 000077 | 000078 | In the explicitly stated constant-scale reduction sigma=sigma0, 000079 | chi=chi0, Metrology001:132–149 gives 000080 | Gamma_grav=-6chi0² E_D+Gamma_D4. 000081 | On the corresponding compact compatible APS/regulator branch, introduce 000082 | only the already displayed absolute spectral-residue functional 000083 | A_geo,chi0(T) 000084 | =-6chi0² Res_(s=1)Tr_rel|T|^(-2s) 000085 | +FP_(s=0)Tr_rel|T|^(-2s)+i pi eta_Sigma(T)/2. 000086 | Linearity of Res and FP gives EXACTLY 000087 | Gamma_grav 000088 | =A_geo,chi0(D_sigma0,geo+B_rel)-A_geo,chi0(D_ref). (3) 000089 | The constant eta term has no pole at1 and enters FP0 once, with its original 000090 | coefficient. It is not duplicated by this separation. 000091 | 000092 | Thus the geometric reference weight is forced: 000093 | R_geo=exp(-Gamma_grav)=exp(6chi0² E_D-Gamma_D4). (4) 000094 | There is no fitted counterphase, independent Higgs normalization or second 000095 | spectral reference subtraction in(3)–(4). This is the concrete constructive 000096 | answer in the older ORIGINAL geometric action branch. 000097 | 000098 | The local-sigma zeta DIFFERENCE is also explicitly given and its residues 000099 | remain linear. However the simple factor -6chi0² is printed in the 000100 | constant-scale corollary. No new unprinted position-dependent weighted 000101 | residue prescription is inserted here to extend that corollary by notation. 000102 | For a relative-only/noncompact operator class keep its supplied relative 000103 | functional; separate absolute traces require the actual stated realization. 000104 | 000105 | 3. WHICH TERMS ARE REALLY SHARED 000106 | 000107 | Metrology002:39–170 supplies the common relative endomorphism 000108 | E_rel=-R I48/4-(Phi*Phi)P2+(gamma^{mu nu} F_mu nu)/2, 000109 | and the actual common residue expansion: 000110 | E_D=-int sqrt(g)[R/(24pi²)+(Phi*Phi)/(48pi²)]+E_Sigma, 000111 | Gamma_D4=int sqrt(g)[|D Phi|²/(16pi²)+(Phi*Phi)²/(16pi²) 000112 | +R Phi*Phi/(96pi²)+tr F²/(192pi²)+R²/(6M²)+...]+A_Sigma. 000113 | These are terms of the ONE relative constructor, not separate optional 000114 | weights. The reference follows that same constructor and trace. The source 000115 | explicitly calls a0 vacuum-energy bookkeeping, a2 the Einstein/Higgs scale 000116 | part, a4 the movement/quartic/gauge/curvature part, with boundary/eta data 000117 | kept separately in the same table. 000118 | 000119 | The printed homogeneous Gamma_grav therefore has exactly the resulting 000120 | signs and coefficients, including the -6chi0² multiplication of E_D. 000121 | This review does not change the Higgs sign to force symmetry breaking or 000122 | revive an old convention. The earlier action/argument/sign audits remain. 000123 | Nor does the residue pair include an independently chosen a0 profile or 000124 | turn FP0 into logdet. This is the OLD RESIDUE branch, not automatically 000125 | the current heat-profile/v259 branch. 000126 | 000127 | The two branches' differences are not a new global failure: they must be 000128 | transported with their own actual operator/argument/trace conventions. 000129 | Neither 'same Gamma' nor 'same KMS' identifies them automatically. 000130 | 000131 | 4. LATER FIELD TERMS: WHAT IS AND IS NOT TRANSPORTED BY THESE FORMULAS 000132 | 000133 | GAUGE/HIGGS/METRIC SPECTRAL TERMS: 000134 | They are already jointly fixed inside the anchored operator and the above 000135 | relative traces/residues. Their common reference is included in(1)or(3). 000136 | Their operator, bundle, domain and scale variations must all be transported. 000137 | A background-dependent bound D_ref must be differentiated with the same 000138 | rule; it cannot be frozen solely because a normalizer is source independent. 000139 | 000140 | FERMION KINETIC / YUKAWA / MAJORANA: 000141 | The original actual oneform and selfdual kinetic bridge already give the 000142 | full finite coefficient and same-collar L=-ND pairing. Those are retained. 000143 | A fermionic action subsequently integrated gives its actual determinant / 000144 | Pfaffian with the fixed orientation. The spectral trace by itself is not 000145 | that integrated determinant. The first required link is the actual full 000146 | bare S_adm field constructor that states which fermion variables are still 000147 | integrated and which determinant has already been absorbed in its weight. 000148 | One must not add the same determinant twice or discard its scalar. 000149 | 000150 | GAUGE FIXING AND GHOSTS: 000151 | Boundary001:313 expressly introduces them later. QFT005:208–214 invokes 000152 | covariant gauge fixing and BRST for the hyperbolic reconstruction. The 000153 | reviewed source passages do not display a specific gauge functional and 000154 | its Faddeev-Popov operator inside the full relative bare constructor. 000155 | Consequently they do not justify either cancelling all ghost determinants 000156 | or adding a freely selected one. For an actual shared gauge-fixing rule, 000157 | its same functional must be evaluated on both original arguments; if a 000158 | term is identical as a functional on the same integration basis it cancels 000159 | from the relative exponent. Otherwise its actual difference remains. 000160 | This is an exact transport rule, not a new arbitrary field sector. 000161 | 000162 | FAMILY / SELECTOR / REFLECTION: 000163 | The existing carrier/admissibility results determine the retained sector; 000164 | normal-dependent graph transport already retains full mixed words under 000165 | the original common density. None is demanded again. They do not themselves 000166 | supply a new classical configuration density for the additional fields. 000167 | The actual full P1 omega already includes their source responses when 000168 | those observables belong to its declared algebra. 000169 | 000170 | 5. THE REFERENCE-STATE BASIS AND THE FORCED FULL WEIGHT 000171 | 000172 | On the SAME actual original finite integration functional I, let the 000173 | absolute full constructors be S_A and S_R, including all still-integrated 000174 | fields and the correct graded order. If w_A=e^(-S_A), w_R=e^(-S_R), then 000175 | R_full=w_R^-1 w_A 000176 | and 000177 | Z_A[F]/Z_R=omega_R(R_full F), 000178 | omega_R(X)=I(w_R X)/I(w_R). (5) 000179 | In the Euclidean even/supercommutative class, if the actual full difference 000180 | is DeltaS_full, this becomes R_full=exp(-DeltaS_full). No new measure is 000181 | required when the reference caller in(5) is already the ORIGINAL supplied 000182 | one. At noncommuting operator level keep w_R^-1w_A or the actual Gibbs 000183 | expansional; do not replace it by a naive exponential of an operator difference. 000184 | 000185 | If the completed absolute constructor has the actual decomposition 000186 | S_A=A_spec(D_A)+S_later,A, 000187 | S_R=A_spec(D_R)+S_later,R, 000188 | then the full even Euclidean ratio is FORCED to be 000189 | R_full=R_spec exp[-S_later,A+S_later,R]. (6) 000190 | The corresponding formula holds with A_geo and R_geo in its homogeneous 000191 | geometric branch. There is no second independent weighting to choose. 000192 | A genuinely common identical later term cancels in(6). A term evaluated on 000193 | different fields/operators must be transported and retained. Fermions can 000194 | instead be integrated first, but their actual Pfaffian/determinant ratio 000195 | then replaces that same piece once, with all external source minors. 000196 | 000197 | Equations(1)–(4) were reconstructed from ACTUAL explicit original constructors. 000198 | Equation(6) states exactly how their full continuation is forced once the 000199 | actual later action terms are identified. It does not claim the missing 000200 | later constructor has been computed by naming it S_later.