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LeanPool.Zeta32.PrimeEdge.Blocks

the proof notes, §6: fixed local matrices and exact determinant identities. lowBlockMatrix = [V⁰(u^{i+k} r_L)], highBlockMatrix = [V⁰(u^{i+k} r_H)], M₀ = [V⁰(u^{i+k} r_0)] with V⁰(u^e) = e B_{e-1}, V⁰((u+m)^{-1}) = 2 H_m^{(3)} and r_L = u³/((u+1)(u+2)(u+3)(u+4)), r_H = u³/((u+1)(u+2)(u+3)), r_0 = u/((u+1)(u+2)(u+3)(u+4)) (exact rationals of code/local_blocks_453.py and the FIX table of code/prime_edge_crt453.py). The Hankel entries depend only on i+k; the moment sequences are recorded separately.

V⁰(u^e r_L), e = 0, …, 4.

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    V⁰(u^e r_H), e = 0, …, 2.

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      V⁰(u^e r_0), e = 0, …, 6.

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        The three-by-three Hankel block formed from the low moments.

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          The two-by-two Hankel block formed from the high moments.

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            The four-by-four Hankel block formed from the zero moments.

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              theorem Zeta32.PrimeEdge.M_L_eq :
              lowBlockMatrix = !![1565 / 648, -15575 / 648, 101261 / 648; -15575 / 648, 101261 / 648, -545255 / 648; 101261 / 648, -545255 / 648, 2649929 / 648]
              theorem Zeta32.PrimeEdge.M_H_eq :
              highBlockMatrix = !![-115 / 8, 481 / 8; 481 / 8, -1731 / 8]
              theorem Zeta32.PrimeEdge.M₀_eq :
              M₀ = !![1 / 1296, 7 / 648, 1565 / 648, -15575 / 648; 7 / 648, 1565 / 648, -15575 / 648, 101261 / 648; 1565 / 648, -15575 / 648, 101261 / 648, -545255 / 648; -15575 / 648, 101261 / 648, -545255 / 648, 2649929 / 648]