Seam clock rigidity
v506_seam_clock_rigidity.py · core
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SEAM.CLOCK.RIGIDITY.01: clock rigidity, Route B of the v503 classification -- two exact theorems reducing the order-4 clock input to ONE alignment bit (Part A Moebius + Part B Fock in one module; QGEO.REALIZE.01 stays [C]/[O], NO marker moves). Exact sympy + exact Cl(16) Fractions, no floats. [E] THEOREM A (Moebius): the collar deck z -> -z has in PGL2(C) EXACTLY TWO square roots (z -> +iz, z -> -iz), both AUTOMATICALLY of order 4 (complete case analysis: tr != 0 => diagonal => a/d = +-i; tr = 0 impossible) -- 'order 4' is NO input anymore; a marks-preserving square root exists <=> the deck is the CENTRAL involution of the mark-stabiliser D4 (center = {id, deck}, exactly 2 order-4 elements = the clocks) => then marks = one mu4 orbit, cross-ratio class {2, 1/2, -1}, j = 1728, tau = i, free 4-cycle, deck = clock^2, only the scale free; COUNTEREXAMPLE (mandatory): {+-1, +-(3+2sqrt2)} is deck-free AND harmonic (j = 1728) with full D4 stabiliser, but the deck sits in it non-centrally (edge involution) => 0 roots -- harmonicity alone is NOT sufficient; the RP filter selects nothing (both real structures pass both roots: the Aut(Z4) ambiguity is irreducible, consistent with v492). [E] B3/B4: a free Z_n orbit forces n | 4; mark transitivity forces n = 4; faithfulness kills n >= 5; n = 3 fixes a mark; n = 6 dies independently at cusp degree 3 (v117); the deck is modulus-blind (v503 B5 exact); controls: n = 8 has only orbits of size 8 (impossible on 4 marks); hexagonal A4 (order 12, ZERO order-4 elements, squares only orders {1,3}); generic Klein V4 (exponent 2 -- not even the deck has a root); stabiliser trichotomy V4/D4/A4 with order-4 counts (0, 2, 0). [E] THEOREM B (Fock, the core result): the unique S^2 spin structure gives NS on every circle (established P1 datum); one-particle: the NS half-rotation has D^2 = -1 (charpoly (lam^2+1)^8), the quarter-shift C has C^2 = D, C^8 = 1 (charpoly (lam^4+1)^4); Fock: Utilde = prod_j(1 - gamma_j gamma_{j+8}), Utilde^2 = 256 gamma_1...gamma_16 => U^2 = (-1)^F EXACTLY, and (cU)^2 = c^2 (-1)^F is NEVER 1 (center of Cl(16) = scalars) -- the Z4 lift is FORCED (nonsplit extension 1 -> Z2^{(-1)^F} -> Z4 -> Z2^{deck} -> 1); Z8 tower: V^2 prop Utilde, V^4 prop (-1)^F, projective order 8 = 2|mu4| -- fermionically explained; R control: U_R^2 = +1 (split -- the forcing rests on NS = the established geometry); 16-fold way: theta_v = 1 at nu = 16; robustness: the forcing already holds at 8 sites. [C] THE ONE REST: 'the collar deck is the central involution of the mark-D4' (<=> square-root existence on the mark data) -- ONE alignment bit; the fermionic Z4 forces the ORDER, not the spatial alignment. No overclaim. QGEO-R1 == P2-R1 (v503) now reads: given the bit, order/uniqueness/orbit/tau = i are theorems. Exact (sympy + Cl(16) Fractions).
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