TFPT scientific source excerpt Original repository path: experiments/theory-contracts/tfpt-unified-source-derivation-20261029/aps_source_review/HIGGS-MIXTURE-WICK-PROOF.txt Original file SHA-256: 1264ad59c4b8de007156b50e4fd0b352a868db1d82bfeafebb50e5173f99ec73 Inclusive original lines: 1-150 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 | R054. SHARED ORIGINAL HIGGS FLUCTUATIONS HAVE AN INVARIANT FOUR-FIELD WITNESS 000002 | 31 October 2026. Established scoped theorem, not a physical source selection. 000003 | 000004 | 1. Decision and actual prerequisites 000005 | Compare the existing whole H source with a reconstruction retaining ONLY 000006 | its averaged two-point covariance. No Yukawa or Majorana is refitted. 000007 | Use the original v252 coefficient Phi(H)=L(H)+DM, its fixed left grading 000008 | gamma=+1, and the already supplied common-quarter constant product chart 000009 | h_H=p gamma-i gamma Phi(H), p=1/4, ell>0, 000010 | C_H=(I+exp(2ell h_H))^-1. 000011 | This is the SECOND FACE contraction, not the whole Cauchy projection G. 000012 | The finite/regulator CAR source is the existing charged source chart. 000013 | We use its quark particle subalgebra, not a new integration over96 physical 000014 | fermions. The independent64-state Fock control below is only algebra QA. 000015 | 000016 | Hypothesis on the H integration: it actually represents a positive 000017 | normalized mixture of these CONDITIONAL quasifree states. Write 000018 | omega(X)=int omega_H(X) dmu(H), dmu>=0, int dmu=1. 000019 | For an unnormalized original fiber, mu must include its actual Z_F(H), 000020 | bosonic weight, reference, eta and every other factor before normalization 000021 | by Z[0]. Positivity concerns the complete weight, not each named factor. 000022 | This is a hypothesis to verify at the original source, not a chosen measure. 000023 | Quadratic dependence on FERMIONS gives conditional quasifreeness; 000024 | nonlinear H dependence alone does not destroy it. Additional fermion 000025 | vertices can destroy it and require the actual conditional four-point term. 000026 | 000027 | 2. Whole four-real H fiber, original three colors and arbitrary given Y 000028 | Put u=H*H and q(H)=[[bar h2,h1],[-bar h1,h2]]. Then q*q=uI2. 000029 | At u>0, U=q/sqrt(u) is unitary; at u=0 use continuous extension. 000030 | The original quark LR block in each color is 000031 | M(H)=(q(H) tensor I3fam) diag(Yu,Yd). 000032 | Thus Phi_quark=[[0,M],[M*,0]], h_H^2=p^2+Phi(H)^2, and 000033 | (h_H^2)_LL=p^2+MM*. 000034 | The six eigenvalues of MM* are u times the squared singular values y_aj^2 000035 | of the actual Yu,Yd, regardless of their noncommutation or weak H direction. 000036 | The Majorana lies in the original neutrino block. It is retained in the 000037 | whole coefficient and the H weight, not discarded because this witness 000038 | is read in the quark subalgebra. 000039 | 000040 | Set g(E)=tanh(ell E)/E. Functional calculus gives 000041 | C_H=I/2-h_H g(sqrt(h_H^2))/2. 000042 | For A_H the6x6 left-quark covariance in any one color, 000043 | m(u)=Tr A_H 000044 | =3-(p/2) sum_(a=u,d;j=1..3) g(sqrt(p^2+y_aj^2 u)). (1) 000045 | All three color blocks are identical A_H and cross-color two-point blocks 000046 | vanish. This uses the ORIGINAL scalar pI background; an arbitrary nonzero 000047 | weak connection is not covered by(1). Full H-direction dependence of A_H 000048 | is retained even though its trace is radial. 000049 | 000050 | For x>0, b(x)=tanh x-x sech^2 x has b(0)=0 and 000051 | b'(x)=2x sech^2 x tanh x>0. 000052 | Therefore g'(E)=-b(ell E)/E^2<0. Since p>0 and at least one quark y is 000053 | nonzero, m(u) is strictly increasing for u>=0. It is bounded, so its 000054 | variance exists for ANY positive probability mu on finite H values, 000055 | even when an unbounded H moment has not been assumed integrable. 000056 | Consequently Var_mu(m)>0 iff u is not mu-almost-surely constant. 000057 | No discretization, radial potential, preferred H direction or Y scan. 000058 | 000059 | 3. A pure quartic witness independent of the constant internal frame 000060 | Let a_ic be the six left modes i per color c, with the actual CAR adjoint. 000061 | Use C_ij=omega(a_j* a_i); the anomalous pairs vanish conditional on H and 000062 | hence in their mixture. Define bounded operators on this finite subalgebra 000063 | E_cd=sum_i a_ic* a_id, N=sum_c E_cc, 000064 | Q_col=sum_cd E_cd E_dc, O=3N^2-Q_col. (2) 000065 | The E matrix changes by conjugation under a CONSTANT color U3 frame. 000066 | N and Q_col are invariant; a common unitary on the six internal modes 000067 | also preserves every E_cd. In particular O does not require an H-dependent 000068 | choice of weak direction. This is internal-frame invariance at the fixed 000069 | circle mode, not a proof of a local3+1D gauge observable or spacetime locality. 000070 | 000071 | Normal ordering with the CAR gives 000072 | N^2=N+sum_ab a_a* a_b* a_b a_a, 000073 | Q_col=3N-sum_cdij a_ic* a_jd* a_id a_jc. 000074 | The quadratic parts cancel in(2); O is a genuine quartic polynomial. 000075 | It is not an extra term added to the action. 000076 | 000077 | For ANY conditional gauge-invariant quasifree A_H tensor I3, put 000078 | tau_H=Tr(A_H-A_H^2). Wick gives the general quadratic-word identity 000079 | omega_H(E_cd E_ef)=delta_cd delta_ef m_H^2 000080 | +delta_cf delta_de tau_H. 000081 | Summing actual indices, with all fermionic exchange signs retained, 000082 | omega_H(N^2)=9m_H^2+3tau_H, 000083 | omega_H(Q_col)=3m_H^2+9tau_H, 000084 | omega_H(O)=24m_H^2. (3) 000085 | 000086 | 4. Exact whole-class discriminator 000087 | Let Cbar=int C_H dmu, and let omega_G be the quasifree state with that SAME 000088 | full two-point data, including zero anomalous pairs on this subalgebra. 000089 | Its left covariance is Abar tensor I3 and Tr Abar=int m_H dmu. 000090 | Equations(2)-(3), without any simultaneous diagonalization in H, imply 000091 | omega(O)-omega_G(O)=24 Var_mu(m(u)). (4) 000092 | Thus if the actual positive H mixture has nonconstant u and a nonzero 000093 | quark Yukawa, this invariant four-field difference is STRICTLY positive. 000094 | The entire positive-weight class is decided by the proof, not by40 checks. 000095 | 000096 | The covariance logarithm log((I-Cbar)Cbar^-1) remains an exact two-point 000097 | reader; its associated quasifree state fails(4). It cannot be the full 000098 | H-averaged source. In finite faithful restrictions, -log rho of the actual 000099 | mixed state contains terms beyond quadratic in the fermion operators. 000100 | This does NOT assert that its only missing term is quartic or determine a 000101 | physical coupling coefficient. Allowing arbitrary anomalous pairs in a 000102 | replacement changes other two-point data; it does not preserve this source. 000103 | 000104 | 5. Limits and connection to the existing whole theory 000105 | At constant u, p=0, ell=0, or all quarkY=0 the strict witness can vanish; 000106 | vanishing is not a general proof of quasifreeness. A complex or signed 000107 | weight does not support the positive-variance conclusion. Additional 000108 | conditional interactions require their conditional four-point response, 000109 | which can contribute to or cancel the displayed defect. Arbitrary local 000110 | H(x), gauge fields and continuum measures are not derived by this theorem. 000111 | 000112 | In particular a primitive quasifree C_Sigma BEFORE H integration remains 000113 | possible. The current original modular route must specify the order: 000114 | conditional source and carrier map first, whole H integration after, or 000115 | a genuine many-body reader preserving(4). Nothing here identifies the 000116 | given conditional H family with that primitive C_Sigma or derives mu/P_F. 000117 | 000118 | R026's exact full-H cumulant functional is reused. R054 adds the explicit 000119 | invariant quark four-field witness and its strict all-positive-mixture 000120 | test against the covariance-only current reader, not another discovery 000121 | that H integration has cumulants. Earlier conformal-source averaging 000122 | preserved every transported conditional word because its covariance was 000123 | unchanged. Here the original Higgs radial dependence changes(1), so that 000124 | old zero-defect argument does not apply. The changed premise is explicit. 000125 | 000126 | Whole96, reference/Eta/Z[0]/H0, original source/state/time/RP, word memory, 000127 | E8/clocks and existing Alpha/Yukawa/Flavor remain in their stated scopes. 000128 | No additional normal metric/gap, profile, counterterm, Y or scale choice. 000129 | No physical scattering amplitude, continuum theorem or ledger promotion. 000130 | 000131 | 6. Independent checks and primary literature 000132 | check_higgs_mixture_wick.py reuses original v252 seed252 coefficient inputs 000133 | and actual real/selfadjoint Higgs one-form, all96 slots and Majorana intact. 000134 | Direct C_H matches(1) at four H controls including real and complex equal-u 000135 | directions. Its actual left grading is +1, fixing the sign in(1). 000136 | An independent rational6-mode/64-state Fock computation verifies CAR, 000137 | normal ordering, constant-frame invariance and(3) without a Wick evaluator. 000138 | Two exact rational states have identical full averaged two-point data to 000139 | their Gaussian replacement, but O differs by4/27=24*(1/162). 000140 | These are diagnostic inputs, not physical H weights or predictions. 000141 | Forty controls pass. An initial unsimplified complex rational expression 000142 | comparison was replaced by exact residual simplification. No new Lean. 000143 | 000144 | Primary theory support, not a TFPT origin proof: 000145 | I. Peschel, cond-mat/0212631, equations3 and12 and the qualification below12 000146 | explicitly separate the free covariance reconstruction from general 000147 | higher expectations: https://arxiv.org/pdf/cond-mat/0212631 000148 | J. K. Pachos and C. Vlachou, arXiv:2203.04870, Wick-violation diagnostics: 000149 | https://arxiv.org/pdf/2203.04870 000150 | The calculations(1)-(4) above are our scoped original-consumer application.