TFPT scientific source excerpt Original repository path: experiments/theory-contracts/native-octic-seam-origin-20261025/NATIVE-FOLDED-OCTIC-ORIGIN.txt Original file SHA-256: c694cb1cee45e65145fdbf144925e45178a7d0ee29adb7142400a00a970e259b 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 | NATIVE FOLDED OCTIC ORIGIN 000002 | ========================== 000003 | 000004 | Verdict 000005 | ------- 000006 | 000007 | PROVED in the supplied original CAR/fold current dictionary: the actual 000008 | original fold has a nonzero normalized-octic matrix element in both quarter 000009 | sectors. CAR-OCTIC-DICTIONARY.txt gives the field directly as an even CAR 000010 | current composite; a full E8 root extension is not needed for this result. 000011 | The earlier exclusion for the unshifted vacuum Omega and its pure 000012 | stress descendants does not apply to this state. The supplied fold changes 000013 | the conformal vector itself, 000014 | 000015 | Y_d(T,z)=T(z)+d.h(z)/z+||d||^2/(2z^2), 000016 | L_n^d=L_n+d.h(n)+||d||^2 delta_(n,0)/2. 000017 | 000018 | The resulting octic state is not primary for L^d. This is the precise new 000019 | premise that opens the matrix element. No fitted Cartan direction or chosen 000020 | root is used. 000021 | 000022 | 1. Original transport and normalization 000023 | --------------------------------------- 000024 | 000025 | The checker reconstructs exactly the already supplied objects 000026 | 000027 | O = T_target B_lattice^(-1)/sqrt(2), 000028 | U_+[:,k]=(e_(2k)-i e_(2k+1))/sqrt(2), 000029 | d_alpha=M delta_alpha, 000030 | delta_alpha,j=(j+alpha)/8-1/2, 000031 | b_alpha=U_+^T O^T d_alpha. 000032 | 000033 | Here M is read from the original fold result, O from the original E8 simple 000034 | root maps, and U_+ is the original J-positive polarization. The checker 000035 | verifies O^T O=I8, U_+^*U_+=I4 and U_+^T U_+=0 before evaluating the octic. 000036 | For alpha=1/4 and 3/4 it independently obtains 000037 | 000038 | ||d_alpha||^2=85/128, h_d=85/256, 000039 | ||b_alpha||^2=85/256. 000040 | 000041 | In the exact native positive Fock coordinates, 000042 | 000043 | I8=sum_a x_a^8+14 sum_(a=F8hat(a_+,-1) Omega_d. For a homogeneous degree-eight oscillator 000066 | polynomial P, 000067 | 000068 |
000069 | =8! conjugate(P(b)). (1)
000070 |
000071 | The conjugation in (1) is required because the retained Hilbert product is
000072 | linear in its second slot. It agrees with the original fold kernel, whose
000073 | one-point functional has Riesz vector conjugate(m), not m.
000074 |
000075 | For P=F8hat, equation (1) gives
000076 |
000077 | alpha=1/4:
000078 | A_1/4=3 sqrt(35)(5416993+18690336i)/2^31,
000079 |
000080 | alpha=3/4:
000081 | A_3/4=429 sqrt(35)(-23473+110880i)/2^31.
000082 |
000083 | Thus the actual folded source has a nonzero F8hat component in both
000084 | quarters. The norm of the full Virasoro descendant is fixed by the sl2
000085 | recursion and independently by all oscillator partitions in the checker,
000086 |
000087 | ||(L_-1^d)^8 Omega_d||^2=8!(2h_d)_8=8!(85/128)_8
000088 | =330344196035583751126875/562949953421312.
000089 |
000090 | The exact squared normalized projections are respectively
000091 |
000092 | 2611534296241/59248596692359104307200,
000093 | 23879517043811/781004229126551829504000.
000094 |
000095 | They are small and strictly positive. A dimension count plays no role.
000096 |
000097 | The state F8hat(a_+,-1)Omega_d is not an L^d primary. Already the coefficient of
000098 | x0^7 in the exact directional derivative D_b F8hat is
000099 |
000100 | b_0/(12 sqrt(140)) != 0.
000101 |
000102 | This explains exactly why the old unshifted-primary orthogonality argument
000103 | cannot be transported to the original fold.
000104 |
000105 | 3. Actual source mode and the full Möbius orbit
000106 | ----------------------------------------------
000107 |
000108 | The existing original cover/fold relation is
000109 |
000110 | Lhat_n=Lcal_(8n)^alpha/8+21/64 delta_(n,0).
000111 |
000112 | Consequently
000113 |
000114 | L_-1^d=Lhat_-1=Lcal_-8^alpha/8,
000115 |