Kuca’s algebraic true complexity conjecture for polynomial progressions

From papers

Let P1,,PmZ[y]P_1,\dots,P_m\in\mathbf{Z}[y] be polynomials and let 0im0\leq i\leq m. Consider the polynomial progression

x,x+P1(y),,x+Pm(y).x,x+P_1(y),\dots,x+P_m(y).

An algebraic relation among these entries is an identity

Q0(x)+Q1(x+P1(y))++Qm(x+Pm(y))=0,Q_0(x)+Q_1(x+P_1(y))+\dots+Q_m(x+P_m(y))=0,

where Q0,,QmZ[z]Q_0,\dots,Q_m\in\mathbf{Z}[z]. Kuca’s conjecture. The true complexity at ii is the smallest natural number ss such that, for every such algebraic relation satisfied by the progression, the degree of QiQ_i is at most ss. The source presents this as a polynomial-progression analogue of the Gowers–Wolf conjecture and notes that only special cases are known. The conjecture remains open in general.

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Sources & referencesView supporting material

Primary source

Sarah Peluse, “Finite field models in arithmetic combinatorics – twenty years on”, arXiv:2312.08100 (2023).

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