A Vanishing Conjecture on Differential Operators with Constant Coefficients
Wenhua Zhao

TL;DR
This paper explores the vanishing conjecture related to differential operators with constant coefficients, connecting it to the Jacobian conjecture, and investigates properties of $ extLambda$-nilpotent polynomials, including their relation to classical orthogonal polynomials.
Contribution
It establishes the equivalence of the vanishing conjecture for Laplace operators to a broader conjecture for all second-order homogeneous differential operators and surveys related results and properties.
Findings
Equivalent formulation of the vanishing conjecture for all second-order homogeneous differential operators.
Transformation of existing results on Jacobian conjecture to the context of $ extLambda$-nilpotent polynomials.
Connection between $ extLambda$-nilpotent polynomials and classical orthogonal polynomials.
Abstract
In the recent progress [BE1], [Me] and [Z2], the well-known JC (Jacobian conjecture) ([BCW], [E]) has been reduced to a VC (vanishing conjecture) on the Laplace operators and HN (Hessian nilpotent) polynomials (the polynomials whose Hessian matrix are nilpotent). In this paper, we first show that the vanishing conjecture above, hence also the JC, is equivalent to a vanishing conjecture for all 2nd order homogeneous differential operators and -nilpotent polynomials (the polynomials satisfying for all ). We then transform some results in the literature on the JC, HN polynomials and the VC of the Laplace operators to certain results on -nilpotent polynomials and the associated VC for 2nd order homogeneous differential operators . This part of the paper can also be read as a short survey on HN polynomials and the…
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Taxonomy
TopicsAdvanced Differential Equations and Dynamical Systems · Spectral Theory in Mathematical Physics · Algebraic and Geometric Analysis
