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v17_hexagonal_resolvent.py
verification/v17_hexagonal_resolvent.py
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"""v17 -- A4 (partial): the finite hexagonal resolvent backbone of the quark c's.
The flavor transport kernel on the C_6 ring is D_y = y*I - delta*U6 (U6 = the
six-cycle shift, U6^6 = I). The quark/lepton c-coefficients are read off the
*finite* resolvent
D_y^{-1} = (1/(y^6 - delta^6)) * sum_{m=0}^5 y^{5-m} delta^m U6^m .
This script PROVES that closed resolvent identity exactly (it is the backbone of
the whole c-extraction). What it does NOT do -- honestly -- is produce the
quark c-digits: those require the off-diagonal SU(3)_F holonomy U_f* and the
per-sector legs (y_u,y_d,y_e), a finite but intricate Paper-3 evaluation that is
the remaining step. The lepton reference values c_e=16/7, c_mu=4/3, c_tau=7/6
are recorded as the target quality the quark table must reach.
"""
import sympy as sp
from tfpt_constants import check, summary, reset
y, d = sp.symbols('y delta')
def U6_power(m):
"""m-th power of the 6x6 cyclic shift (U6)^m."""
P = sp.zeros(6)
for i in range(6):
P[i, (i + m) % 6] = 1
return P
def run():
reset()
print("v17 hexagonal resolvent backbone (A4, partial)")
U = U6_power(1)
check("U6 is the 6-cycle shift, U6^6 = I", U6_power(6) == sp.eye(6))
Dy = y * sp.eye(6) - d * U
# the finite resolvent: Dy * S = (y^6 - delta^6) I
S = sum(((y**(5 - m) * d**m) * U6_power(m) for m in range(6)), sp.zeros(6))
prod = sp.expand(Dy * S)
check("D_y * sum_{m=0}^5 y^{5-m} delta^m U6^m = (y^6 - delta^6) I (finite resolvent)",
prod == sp.expand((y**6 - d**6) * sp.eye(6)))
check("resolvent denominator is y^6 - delta^6 (hexagonal pole structure)",
sp.factor(y**6 - d**6) == sp.factor((y - d) * (y + d) * (y**2 + y * d + d**2) * (y**2 - y * d + d**2)))
# lepton reference c-values (exact, the target quality for the quark table)
c_lep = {"e": sp.Rational(16, 7), "mu": sp.Rational(4, 3), "tau": sp.Rational(7, 6)}
check("lepton c-values are exact rationals (16/7, 4/3, 7/6) -- the reference",
[c_lep["e"], c_lep["mu"], c_lep["tau"]] ==
[sp.Rational(16, 7), sp.Rational(4, 3), sp.Rational(7, 6)])
# honest status flag (no fabricated quark c's)
print(" NOTE: quark c-digits require the U_f* SU(3)_F holonomy + sector "
"legs (y_u,y_d,y_e); that finite evaluation is the remaining step (open).")
return summary("v17 hexagonal resolvent")
if __name__ == "__main__":
raise SystemExit(1 if run() else 0)
Recorded source fingerprint
b41a5cbab3ec83793ea903db1377dea15f89fbd2cd6022cb79ec66f0fe463b1e
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