TFPT scientific source excerpt Original repository path: experiments/theory-contracts/native-arc-charge-source-interface-20261026/ELLIPTIC-CURRENT-SOURCE.txt Original file SHA-256: 657b2ace6d7152c53dbb29c76d8e0daca6e6b1ce747c535da7dffb0ff38d9b48 Inclusive original lines: 1-80 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 | UR.NATIVE.ARCCHARGE.ELLIPTIC-CURRENT.01 000002 | 26 October2026. Existing same-E Gaussian kernel to full current source. 000003 | 000004 | 1. Exact question and retained premise 000005 | Does the already derived free elliptic Green/Calderon source determine an 000006 | actual current functional and the neutral native composites, rather than 000007 | only an abstract possible current embedding? Reuse that given source. 000008 | Success requires the original quarter/current conventions, full charge 000009 | sectors and Weyl central phase. A mismatch in the first neutral current norm 000010 | aborts equality with the old Hardy state, not the source construction itself. 000011 | No new geometry,temperature,coupling or primitive measure is selected here. 000012 | The free Gaussian quantization is an EXPLICIT existing premise. It has not 000013 | been derived from the primitive P1 relative spectral action. 000014 | 000015 | 2. Same source and exact generator scales 000016 | The actual square curve and labelled right annulus face have 000017 | C_A=(1+exp(2pi B_cov))^-1, B_cov=2(B_1/4 direct_sum B_3/4). 000018 | Quarter mode r therefore has covariance 000019 | c_r=(1+exp(b(r+alpha)))^-1, alpha=1/4 or3/4, b=4pi. (1) 000020 | This is a direct specialization of the existing NS cover mode n=2r+epsilon, 000021 | not a fit. The two quarter covariances are independent blocks of this given 000022 | quasifree state; they are not assigned independent new vacua. 000023 | Write the original sea-relative Fock energy as 000024 | H_alpha=N+F_alpha(Q), F_alpha(q)=q²/2+(alpha-1/2)q. (2) 000025 | Filling q>0 particles or -q holes proves the charge term; the original 000026 | Maya/current correspondence gives the oscillator degree N. 000027 | The density operator is rho_alpha=Z_alpha^-1 exp(-4pi H_alpha). 000028 | For the cover generator2H_alpha the SAME inverse normalization is2pi. 000029 | For the previous native K_alpha=H_alpha/8 it is32pi. 000030 | These describe one density operator. None is a physical temperature or an 000031 | absolute time calibration. 000032 | 000033 | 3. Constructive current representation, not a vacuum replacement 000034 | The fermionic partition product converges, since excitation energies grow 000035 | linearly and both positive gaps alpha,1-alpha are nonzero. 000036 | Consequently rho_alpha is a faithful traceclass density on the original 000037 | sea Fock space, with exactly the occupation covariance(1). 000038 | Define the bounded source representation on its thermal cyclic Hilbert space 000039 | by pi_alpha(A)X=A X, cyclic vector rho_alpha^(1/2), Hilbert-Schmidt norm. 000040 | Then =Tr(rho A). This is an explicit unital 000041 | normal star representation. This is the full Hilbert-Schmidt representation 000042 | for the full CAR source algebra. When only currents are used,restrict to 000043 | their cyclic subspace closure{A rho^(1/2):A in current algebra};currents 000044 | do not connect different charge blocks. In particular pi(exp(iJ(f))) supplies the actual 000045 | current Weyls. Its source regional algebras are the images of the original 000046 | connected current algebras; it is not an assertion that primitive P1 has 000047 | already supplied this representation or its physical admissible subspace. 000048 | The full annulus graph and this labelled marginal remain different objects. 000049 | The same-E reflection/word positivity is reused from ELLIPTIC-GREEN-RP.txt. 000050 | 000051 | 4. Full charge and oscillator source functional 000052 | Boson/fermion correspondence or Jacobi triple product gives 000053 | Z_alpha = Theta_alpha(0) product_(m>0)(1-exp(-bm))^-1, 000054 | Theta_alpha(t)=sum_(q in Z) exp(-bF_alpha(q)) exp(i t q). (3) 000055 | This retains the full original charge carry. In particular the original 000056 | sea-relative mean charges are plus/minus0.0413432895814817...,not zero in 000057 | each quarter. The two values cancel for their combined charge. 000058 | For a smooth real profile f, use the ORIGINAL convention 000059 | J(f)=f0 Q+sum_(m>0)(f_m J_-m+conj(f_m)J_m). 000060 | Independent thermal oscillators with [J_m,J_-m]=m now give EXACTLY 000061 | omega_alpha(W(f))=Theta_alpha(f0)/Theta_alpha(0) 000062 | times exp[-1/2 sum_(m>0)m coth(bm/2)|f_m|²]. (4) 000063 | Every Fourier tail of a smooth profile is retained. Properly supported 000064 | profiles are not replaced by finite Fourier polynomials. 000065 | For any finite ordered list use the ORIGINAL central commutator 000066 | c(f,g)=sum_(m>0)m[conj(f_m)g_m-f_m conj(g_m)], 000067 | omega(W(f1)...W(fk))=exp[-1/2 sum_(i0, 000076 | omega(J_m J_-m)=sum_r c_r(1-c_(r+m)), 000077 | omega(J_-m J_m)=sum_r c_(r+m)(1-c_r). 000078 | Put y=exp(bm). Each term obeys 000079 | c_r(1-c_(r+m))=(c_r-c_(r+m))/(1-y^-1), 000080 | c_(r+m)(1-c_r)=(c_r-c_(r+m))/(y-1).