TFPT scientific source excerpt Original repository path: experiments/theory-contracts/older-paper-source-recovery-20261025/ORIGINAL-CIRCLE-REVIEW.txt Original file SHA-256: b4519375a8e1ecfec4beb7ba10da90155c3f17a84bde5b48b1a3f5252341b69c Inclusive original lines: 201-400 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. 000201 | 000202 | 7. Decision-relevant result 000203 | --------------------------- 000204 | 000205 | PROVED: fullv21 already contains a concrete circle representative which, 000206 | after B=-D_Gamma, realizes the exact one-particle Ward relation, spectral flow 000207 | +1, Toeplitz index -1 and a canonical seam line for each fixed 00, 000262 | R_t=exp(t/4)T_t, 000263 | r=exp(-t/2). (20) 000264 | 000265 | In the increasing-|B| eigenbasis, R_t has the exact eigenvalues 000266 | 000267 | 1,r,r^2,r^3,... . (21) 000268 | 000269 | It follows immediately that 000270 | 000271 | ||R_t-P_gap||_1=sum_(m>=1) r^m=r/(1-r), (22) 000272 | 000273 | and therefore R_t converges to P_gap in trace norm as t tends to infinity. 000274 | The corresponding operator-norm error is r. This proves more than a weak or 000275 | matrix-element ground-state approximation. 000276 | 000277 | The same heat spectrum occurs for alpha=1/4 and 3/4. Thus the positive heat 000278 | transfer alone cannot distinguish monodromy i from -i; that orientation is 000279 | lost when B is replaced by |B|. 000280 | 000281 | 9. Fredholm determinant and explicit logarithmic error 000282 | ------------------------------------------------------ 000283 | 000284 | For every complex Q with |Q|<1, R_t is trace class and 000285 | 000286 | det(I-Q R_t)=product_(m>=0)(1-Q r^m) 000287 | ->1-Q (23) 000288 | 000289 | as t tends to infinity. For real 0<=Q<1 the error has the fixed sign and the 000290 | exact elementary bound 000291 | 000292 | |log det(I-Q R_t)-log(1-Q)| 000293 | =sum_(m>=1) -log(1-Q r^m) 000294 | <=sum_(m>=1) Q r^m/(1-Q r) 000295 | =Q r/[(1-r)(1-Q r)]. (24) 000296 | 000297 | The first inequality uses -log(1-x)<=x/(1-x) and 000298 | 1-Qr^m>=1-Qr. Hence the rank-one logarithm is uniformly controlled away from 000299 | Q=1, rather than being inferred only from the leading eigenvalue. 000300 | 000301 | For the unnormalized heat transfer set 000302 | 000303 | q=exp(-t/4), r=q^2. 000304 | 000305 | Then T_t=q R_t and its exact full determinant is 000306 | 000307 | D(q):=det(I-T_t) 000308 | =product_(m>=0)(1-q^(2m+1)). (25) 000309 | 000310 | The rank-one truncation keeps only the m=0 factor 1-q. Every finite t has 000311 | q>0 and all higher factors are nontrivial, so D(q) is never exactly 1-q. 000312 | 000313 | 10. Exact infrared series and the first correction 000314 | -------------------------------------------------- 000315 | 000316 | Let b=5/4 and form the full heat expression 000317 | 000318 | Phi_heat(q)=q D(q)^(-b). (26) 000319 | 000320 | Its rank-one infrared truncation is 000321 | 000322 | Phi_1(q)=q(1-q)^(-b). (27) 000323 | 000324 | Since the first omitted heat factor is (1-q^3), their difference begins at 000325 | order q^4: 000326 | 000327 | Phi_heat(q) 000328 | =q+(5/4)q^2+(45/32)q^3+(355/128)q^4+O(q^5), 000329 | 000330 | Phi_1(q) 000331 | =q+(5/4)q^2+(45/32)q^3+(195/128)q^4+O(q^5), 000332 | 000333 | Phi_heat(q)-Phi_1(q)=(5/4)q^4+O(q^5). (28) 000334 | 000335 | The agreement through q^3 and the first positive correction are therefore 000336 | structural consequences of the odd-quarter heat spectrum, not a numerical 000337 | fit. 000338 | 000339 | There is also an exact all-order recurrence. Write 000340 | 000341 | D(q)^(-b)=sum_(n>=0) t_n q^n, t_0=1, 000342 | 000343 | and define 000344 | 000345 | sigma_odd(k)=sum_{d divides k, d odd} d. 000346 | 000347 | Logarithmic differentiation of (25) gives 000348 | 000349 | q d/dq log D(q)^(-b) 000350 | =b sum_(k>=1) sigma_odd(k) q^k. 000351 | 000352 | Equating coefficients yields 000353 | 000354 | n t_n=b sum_(k=1)^n sigma_odd(k)t_(n-k). (29) 000355 | 000356 | Equation (29) reproduces exactly 000357 | 000358 | t_0=1, t_1=5/4, t_2=45/32, t_3=355/128. 000359 | 000360 | 11. Exact scope of the positive historical connection 000361 | ------------------------------------------------------ 000362 | 000363 | PROVED MATHEMATICALLY ON THE ORIGINAL CIRCLE CHOICE: 000364 | 000365 | * the full positive heat transfer has the complete determinant (25); 000366 | * its ground-energy-normalized operator converges in trace norm to the 000367 | canonical P_gap with the exact error (22); 000368 | * the Fredholm determinant converges to the rank-one factor with (24); 000369 | * the full finite-time correction to the scalar series is (28), with all 000370 | coefficients fixed by (29). 000371 | 000372 | FIRST ADDITIONAL PHYSICAL IDENTIFICATION: 000373 | 000374 | To call this the original admissible electromagnetic transfer, one must give 000375 | an isometry from this quarter-circle sector into Ran(P_adm) which intertwines 000376 | |B_alpha|, P_gap and the trace used in the EM determinant. No such 000377 | intertwiner is supplied by the circle heat calculation. After that, one must 000378 | also identify the heat weight 000379 | 000380 | q_heat=exp(-t/4) 000381 | 000382 | with the separately defined EM response variable 000383 | 000384 | q_EM=delta_top exp(-2 alpha_EM). (30) 000385 | 000386 | The equality in (30), the exponent b=5/4 and its physical normalization are 000387 | not consequences of the heat spectrum. 000388 | 000389 | Finally, exp(-t|B|) is a positive Euclidean heat evolution. It is not the 000390 | oriented unitary evolution generated by B, and it does not by itself provide 000391 | charged CAR time, the full OS source, an E8 field identification or infrared 000392 | physics. The positive result is exactly a controlled ground-mode completion 000393 | of the old heat determinant inside the already chosen circle model. 000394 | 000395 | Additional historical source for this appendix 000396 | ---------------------------------------------- 000397 | 000398 | 5. documents/archive--paper-latex--tfpt-31/sections/ 000399 | 014-section-downstream-cosmology-module-on-the-observation-c.tex:4--24, 000400 | 57--68, where the positive heat transfer is first written. The equality of