TFPT scientific source excerpt Original repository path: experiments/theory-contracts/joint-native-algebra-selection-20261016/ORIGINAL-DENSITY-GEOMETRY-AND-TIME-HISTORIES.txt Original file SHA-256: 2abf4b44f4cb4ca713d4e520676ef8db0849e5142962521a9592550f1c16ddbe Inclusive original lines: 100-190 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. 000100 | 3. An actually specified original local observable 000101 | 000102 | Use the original single-circle CAR modes a_r, filled r<0. Its local number 000103 | density has modes 000104 | 000105 | J_m=sum_r :a_r^* a_(r+m):, 000106 | J_m^*=J_-m, [J_m,J_n]=m delta_(m+n,0) I, 000107 | [K_alpha,J_m]=-m J_m/8, [Q,J_m]=0. 000108 | 000109 | The definition follows from the actual CAR. It fixes signs and normalization, 000110 | not a new root-current coupling. For a smooth real profile phi, its source 000111 | generator J(phi)=sum_m phi_m J_-m implements multiplication exp(i phi) on 000112 | one-particle fields. Properly supported profiles are genuine local density 000113 | operations in this GIVEN source net. Their physical selection from P1, or 000114 | the choice of a probe profile/detector, is not thereby proved. 000115 | 000116 | The ORIGINAL fold sends the scalar multiplier to a diagonal matrix in the 000117 | arc basis, and the already fixed Fourier eigenchannels give 000118 | 000119 | V_phi,kl(x)=1/8 sum_r phi((x+2pi r)/8) exp(2pi i(l-k)r/8). 000120 | 000121 | For phi(theta)=exp(i m theta), exactly m=k-l modulo8 survives and its 000122 | coefficient is exp(i m x/8). The positive profile frequency m belongs to 000123 | J_-m. Therefore a source-local scalar phase is generally OFF-DIAGONAL in 000124 | the folded charge channels. It is not the earlier class of independently 000125 | diagonal folded Cartan profiles. Those scoped exclusions cannot be applied 000126 | without this actual source map. The coefficients of these channel changes 000127 | are correlated by a single original profile, not freely chosen root weights. 000128 | 000129 | In literal source CAR bilinear conventions the first raising mode is 000130 | 000131 | J_-1=sum_(k=1..7) E_(k,k-1),0+E_(0,7),-1. 000132 | 000133 | E_(i,j) means the actual :psi_i^* psi_j: here. Conversion to another lattice 000134 | root basis must transport its cocycle phases. On the original sea only the 000135 | wrap term survives, with charge e0-e7,source energy1,fold energy1/8. 000136 | It is a D8 root current in the even source, not an added odd spinor field. 000137 | 000138 | 4. Full state and native erasure response, computed directly in CAR 000139 | 000140 | Use the same positive vectors U and source matrix V=M^T O U. Its entries 000141 | are Gaussian rationals. Native h_a(-n) maps to sum_k V_ka h_k(-n), where 000142 | 000143 | h_k(-n)=sum_(r=k mod8) :a_(r+8n)^* a_r:. 000144 | 000145 | These bilinears reconstruct the previous full response 000146 | R_(b,4)f_i=[t^4]f_i(b+sum_(n>=1)h_+(-n)t^n), b=V^T delta. 000147 | They retain every partition4,31,22,211,1111. The independently computed 000148 | CAR Gram agrees entrywise with the previous complete bosonic Fock Gram. 000149 | Each state has charge0 and ORIGINAL source energy32, not source energy4. 000150 | 000151 | J1 gives energy31, J-1 energy33. All eight forward and eight backward 000152 | cyclic root charge sectors are retained, including their sea signs. 000153 | Both response Grams have rank5, and the full VECTOR relation is 000154 | 000155 | (J1 J-1-J-1 J1)R_(b,4)f_i=R_(b,4)f_i. 000156 | 000157 | Consequently G_+-G_-=B4. In BOTH original quarters G_- is not proportional 000158 | to B4: this current acts directionally even after accounting for the actual 000159 | input metric. The generalized polynomial det(G_--lambda B4) is squarefree 000160 | of degree5. All five eigenvalues are distinct; no degenerate 3+2 block is 000161 | supplied by this response. A further grouping would need justification. 000162 | 000163 | The actual erasure a_a=h_(bar V_a)(1) still gives exactly 000164 | 000165 | a_a R_(b,4) f_i=R_(b,3) partial_a f_i. 000166 | 000167 | Its commutator with the new original current is fixed without coefficients: 000168 | 000169 | [a_a,J_-1]=sum_r (bar V_(r+1,a)-bar V_(r,a)) a_(r-7)^* a_r. 000170 | 000171 | All20 full source Ward outputs are nonzero, with every charged component 000172 | retained. This links the original density, its actual quartic response and 000173 | the existing derivative-erasure20. It is not a physical fermion/Yukawa map. 000174 | 000175 | The complete original oscillator decomposition supplies a further identity: 000176 | 000177 | 8K_alpha=Q(Q-1)/2+alpha Q+sum_(m>0) J_-m J_m. 000178 | 000179 | For the actual neutral energy32 inputs this is the finite EXACT statement 000180 | sum_(m=1..32) Gram(J_m R_(b,4))=32 B4. Every one of the32 matrices is saved; 000181 | all m>32 annihilate by positive source energy. This is an energy bound, not 000182 | a chosen mode cutoff or discarded memory. Individual nonscalar responses 000183 | and the fixed total energy coexist. 000184 | 000185 | The exact CAR calculation uses [-34,34]. Charge0 energy<=33 implies every 000186 | particle index<=32 and every hole index>=-33. All operator paths used here 000187 | stay below that energy. Every omitted edge bilinear annihilates the input; 000188 | signs are (-1) to the number of occupied modes strictly between its endpoints. 000189 | Thus the window implements these complete finite-energy responses exactly. 000190 |