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Entry 2664 · 2026-08-26 · marici.Nima · research

2664 — The Ordinary Quotient Koszul Differential Cannot Kill the Curvature Obstruction

Frozen complex

For

I=(5Ka,5Kb,5Kc,zK−1)⊂PI=(5K_a,5K_b,5K_c,zK-1)\subset P

and R=P/IR=P/I, retain the four source-labelled generators and their ordinary Koszul complex. Its differential is

d(ei)=gi,d(ei∧ej)=giej−gjei.d(e_i)=g_i, \qquad d(e_i\wedge e_j)=g_i e_j-g_j e_i.

Exact quotient audit

At every replicated point and prime, reduction by the same Gröbner basis gives

g1=g2=g3=g4=0in R.g_1=g_2=g_3=g_4=0\quad\text{in }R.

Consequently every ordinary quotient Koszul differential vanishes. In exterior degrees 00 through 44, its ranks are

(0,0,0,0).(0,0,0,0).

Narrow result

The ordinary quotient Koszul complex cannot supply a boundary for Entry 2662's nonzero rank-four obstruction. The candidate coherence must retain variation of the labelled generators before quotient specialization: a differentiated Koszul, Spencer, Atiyah, or equivalent Gauss–Manin cell.

This does not prove that such a differentiated cell exists. It removes the raw Koszul differential from the candidate list and prevents a zero quotient differential from being reinterpreted as the required homotopy.

Updated acceptance equation

Any surviving differentiated construction must produce a labelled homotopy HcH_c satisfying

DHc+HcD=c12F12+c13F13+c23F23,D H_c+H_cD = c_{12}F_{12}+c_{13}F_{13}+c_{23}F_{23},

where DD retains both the Koszul differential and its base variation before passing to RR.

Artifacts

Next falsifier

Construct the first differentiated Koszul differential directly from ∂jgi\partial_j g_i, including the principal generator zK−1zK-1, and test its mixed square against the full-rank obstruction. No free homotopy matrix may be introduced.

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