TFPT scientific source excerpt Original repository path: experiments/theory-contracts/recursive-mirrored-source-20261103/REFERENCE-FIBER-EVALUATION.txt Original file SHA-256: b816066a532162b0b6dbe2f49203c484ab1f91662b290a759f3e9223963c4ee5 Inclusive original lines: 1-180 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 | ORIGINAL SEAM EVEN REFERENCE: COMPLETE FERMION FIBER EVALUATION 000002 | 3 November 2026. Original R032 source branches, no new lift or parameter. 000003 | 000004 | Result 000005 | 000006 | For the physical seam even Higgs class and the actual R032 bundle chart, 000007 | the reference coefficients simplify exactly to h_R,S=A gamma and 000008 | h_R,T=h_A. Their entire finite fermion fibers, coherent kernels, source 000009 | densities, sea factors and circle mode determinants are evaluated below. 000010 | All actual Yukawa, Majorana and background couplings remain. The known 000011 | sea factor is separated from the whole original reference prefactor; 000012 | no boson weight or whole Z_ref is set to1. 000013 | 000014 | 1. The seam even premise and the actual reference lifts 000015 | 000016 | [OMITTED: non-scientific conversation or execution metadata] 000017 | 000018 | documents/archive--tfpt-45--source_extracts--05_metrology_source/sections/ 000019 | 001-subsection-from-bridge-to-geometric-completion.tex:274-280 states that 000020 | the unique light original Higgs doublet is seam even: tau*Phi=+Phi. 000021 | 000022 | The existing source proof 000023 | experiments/theory-contracts/tfpt-unified-source-derivation-20261029/ 000024 | aps_source_review/ORIGINAL-HIGGS-BOUND-REFERENCE-PROOF.txt:48-62 explicitly 000025 | defines H_tau using the supplied scalar/bundle pullback. It intertwines L 000026 | and transports the given Yukawas and MR unchanged in THAT chart. Put 000027 | 000028 | H_even=(H+H_tau)/2, H_odd=(H-H_tau)/2. 000029 | 000030 | Thus the physical even class has H_tau=H, H_even=H, H_odd=0 in this 000031 | actual equivariant field chart. A different internal transport would need 000032 | its original dictionary; evenness is not imposed on an unrelated raw 000033 | quaternion coordinate by notation. Also H_tau is the stated base/bundle 000034 | pullback, not the full conjugation of the Dirac operator by its spin lift. 000035 | 000036 | The two actual R032 lifts give 000037 | 000038 | Dref,S=D0+Z L(H_odd), 000039 | Dref,T=D0+Z[L(H_even)+DM]. (1) 000040 | 000041 | REFERENCE-SOURCE-COMPLETION.txt:31-45 in the existing 000042 | original-local-source-variable-background-20261102 contract transports 000043 | them through the same complete U and common original domain: 000044 | 000045 | h_R,S=A gamma-i gamma L(H_odd), 000046 | h_R,T=A gamma-i gamma[L(H_even)+DM]. 000047 | 000048 | Therefore on the physical even class, 000049 | 000050 | h_R,S=A gamma, 000051 | h_R,T=h_A=A gamma-i gamma[L(H)+DM]. (2) 000052 | 000053 | This follows without [A,Phi]=0 and is valid for the smooth mixed 000054 | backgrounds of the given fixed product chart. It chooses neither S nor T 000055 | as the physical global lift. Endpoint conditions, reflection and actual 000056 | reference domains remain the transported ones. It is the original R032 000057 | reference branch calculation, not an independently selected reference. 000058 | 000059 | 2. Whole finite exterior fiber and its actual scalar 000060 | 000061 | SEED-FIELD.txt:149-177 supplies, at a compatible finite original cutoff, 000062 | 000063 | Q_raw,j(t)=Gamma(exp(-t h_j)), 000064 | Esea,j=Tr[1_(h_j<0)h_j], 000065 | s_sea,j(t)=exp(t Esea,j), 000066 | Q_heat,j(t)=s_sea,j(t)Q_raw,j(t), (3) 000067 | 000068 | where j=A,R,S or R,T with its actual coefficient. The particle/hole 000069 | excitation form of Q_heat is exp(-t H_exc,j), H_exc,j=dGamma(|h_j|). 000070 | The original field map between signed old fields and excitations remains; 000071 | the grading gamma is not the spectral sign of h. 000072 | 000073 | The entire ORIGINAL conditional caller can carry a further scalar or 000074 | remaining body factor. At this finite fixed boson fiber write exactly 000075 | 000076 | s_j=a_j s_sea,j, 000077 | Q_j=a_j Q_heat,j=s_j Gamma(exp(-t h_j)). (4) 000078 | 000079 | Here a_j is the actual supplied remaining factor, not a new adjustable 000080 | normalization. The known sea factor in(3) does not calculate a_j. It can 000081 | include the given original scalar, reference, eta and other source factors 000082 | at that stage. Do not set a_R=1 unless that whole original caller says so. 000083 | If a remaining factor is operator valued, retain its given order outside 000084 | the fixed classical fiber operation. No determinant of an averaged or 000085 | noncommuting boson operator matrix is used below. 000086 | 000087 | In the original charged coherent coordinates the complete fixed fiber is 000088 | 000089 | ((eta|Q_j(t)|xi)) 000090 | =a_j exp(t Esea,j) exp[bar eta exp(-t h_j)xi]. (5) 000091 | 000092 | This includes every exterior minor and all the actual mixed fermion 000093 | components. It is not merely a determinant or a list of eigenvalues. 000094 | Original orientation and source ordering are those in SEED-FIELD:154-170. 000095 | 000096 | The finite fermion trace is exactly 000097 | 000098 | Z_F,j=a_j exp(t Esea,j) det(I+exp(-t h_j)). (6) 000099 | 000100 | Proof: the exterior trace is the sum over all occupied subsets of the 000101 | products exp(-t lambda_i), hence product_i(1+exp(-t lambda_i)). This is 000102 | an identity on the existing complete coordinate exterior space; it adds 000103 | no second determinant/Pfaffian to a previously integrated physical source. 000104 | 000105 | The determinant in(6) is the trace on the ENTIRE exterior/CAR coordinate 000106 | fiber of this given chart. It is not a count of96 independent physical 000107 | Standard Model fermions. If the original physical closure retains an 000108 | additional selector P on a different or coupled physical space, its 000109 | actual trace remains Tr_F(P Gamma(R)), with its source contacts and 000110 | remaining factors; it is not replaced by det(I+R). The positive reference 000111 | density derived on this one face from the actual whole Gref therefore 000112 | does not itself equal the physical joint Z_ref. 000113 | 000114 | 3. Actual constant circle mode: S branch completely evaluated 000115 | 000116 | Now specialize only to the already existing constant circle chart 000117 | A=p I_96, p=n+alpha, with its actual original alpha and t>0. No numerical 000118 | alpha, length or Yukawa is selected. Write P_plus/minus=(I+/-gamma)/2. 000119 | The actual full96 grading has ranks48/48. Thus 000120 | 000121 | h_R,S,p=p gamma, 000122 | exp(-t h_R,S,p)=exp(-tp)P_plus+exp(tp)P_minus, 000123 | Esea,R,S,p=-48|p|. (7) 000124 | 000125 | The raw exterior trace, with NO sea factor absorbed, is 000126 | 000127 | Z_F,R,S,p/s_R,S,p 000128 | =(1+exp(-tp))^48(1+exp(tp))^48 000129 | =[4cosh^2(tp/2)]^48. (8) 000130 | 000131 | For the actual sea corrected heat source, 000132 | 000133 | s_sea,R,S,p=exp(-48t|p|), 000134 | Z_heat,R,S,p=(1+exp(-t|p|))^96, 000135 | Z_F,R,S,p=a_R,S,p(1+exp(-t|p|))^96. (9) 000136 | 000137 | The pure fermion fiber normalization is therefore fixed exactly. The 000138 | factor a_R,S,p remains whatever its whole original source provides. 000139 | Equations(8) and(9) are different explicitly related conventions, not 000140 | two interchangeable choices of the same absolute reference scalar. 000141 | 000142 | 4. Full mixed96 A and T fibers, including every Majorana entry 000143 | 000144 | For the same constant circle coefficient let 000145 | 000146 | Phi=L(H)+DM, Phi*=Phi, {gamma,Phi}=0. 000147 | 000148 | In its actual grading decomposition Phi has blocks [[0,B],[B*,0]] with 000149 | B a48x48 matrix. This B is the ENTIRE original coupled block, including 000150 | Yukawas, conjugates, colors, families and Majorana mixing. Do not separate 000151 | its eigenvalues into independent Yukawa and MR contributions. Let sigma_a 000152 | be the singular values of that actual B, a=1,...,48, and set 000153 | 000154 | E_a=sqrt(p^2+sigma_a^2). 000155 | 000156 | The full h_A,p has blocks [[pI,-iB],[iB*,-pI]]. Squaring gives p^2+Phi^2, 000157 | and its exact eigenvalues are +E_a,-E_a. Consequently 000158 | 000159 | det(I+exp(-t h_A,p))=product_(a=1)^48 4cosh^2(tE_a/2), 000160 | Esea,A,p=-sum_a E_a, 000161 | Z_heat,A,p=product_a(1+exp(-tE_a))^2. (10) 000162 | 000163 | On the even T branch h_R,T,p=h_A,p, so the same exact formulas apply to 000164 | its reference fermion kernel and sea factor. In particular the null source 000165 | raw determinant ratio is1, and the finite sea factor ratio is also1. 000166 | The WHOLE original factor is still 000167 | 000168 | Z_F,A,p/Z_F,R,T,p=s_A,p/s_R,T,p=a_A,p/a_R,T,p. (11) 000169 | 000170 | It is not set to1 merely from h_A=h_R,T. Equal actual complete original 000171 | prefactors would make this particular fiber ratio1; that is an additional 000172 | equality of already given source factors to check, not a new freedom. 000173 | 000174 | For S the exact finite fermion ratio is instead 000175 | 000176 | Z_F,A,p/Z_F,R,S,p 000177 | =(s_A,p/s_R,S,p) product_a 000178 | [cosh(tE_a/2)/cosh(tp/2)]^2 000179 | =(a_A,p/a_R,S,p) product_a 000180 | [(1+exp(-tE_a))/(1+exp(-t|p|))]^2. (12)