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Proof of Well-Posedness of the Dyson Hamilton-Jacobi Equation in the Weyl Chamber below the Collision Threshold

theoremthm:dyson-well-posed-weyl-chamber-2026a
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· 1,582 chars · 6 deps · depth 26 Reason: Phase F examples: proof of drift-form Dyson well-posedness.

The Dyson operator is the penalty-drift operator with the confined log energy as potential, which is a penalty with monotone gradient satisfying the dissipation inequality; the general well-posedness theorem applies.

Proof

Each result cited is universally quantified over the data in its own statement. We apply Well-Posedness of the Penalty-Drift Hamilton-Jacobi Equation under a Dissipation Inequality with D=WND=W_{N}, which is open and nonempty by The Logarithmic Energy on the Weyl Chamber: Derivatives, Monotone Gradient, the Calogero Identity and the Euler Identity §open, and with the penalty PP (The Confined Logarithmic Energy on the Weyl Chamber: Regularity, Penalty Property, Monotone Gradient and the Dissipation Inequality §penalty, whose hypothesis is the linear lower bound on V1V_{1}). By The Dyson Hamilton-Jacobi Equation for N Controlled Particles in the Weyl Chamber §operator, FF is the penalty-drift Hamilton-Jacobi operator on WNW_{N} with potential PP and the given coefficients.

One-sided drift. Since V1′′≥0V_{1}''\ge0, The Confined Logarithmic Energy on the Weyl Chamber: Regularity, Penalty Property, Monotone Gradient and the Dissipation Inequality §monotone gives 0≤(DP(x)−DP(y))⋅(x−y)0\le(DP(x)-DP(y))\cdot(x-y) for all x,y∈WNx,y\in W_{N}. For every R∈RR\in\mathbb{R} we may therefore take cR=0c_{R}=0 in hypothesis Well-Posedness of the Penalty-Drift Hamilton-Jacobi Equation under a Dissipation Inequality §one-sided, since −0⋅∥x−y∥2=0-0\cdot\lVert x-y\rVert^{2}=0 (claim 1 of Zero Products and Elementary Identities in a Field).

Dissipation. Since 0<λ0<\lambda, 0≤κ<2β0\le\kappa<2\beta, V1′′≥0V_{1}''\ge0, V1V_{1} has the linear lower bound and regular growth, The Confined Logarithmic Energy on the Weyl Chamber: Regularity, Penalty Property, Monotone Gradient and the Dissipation Inequality §dissipation gives ε,C\varepsilon,C with 0<ε≤10<\varepsilon\le1 for which hypothesis Well-Posedness of the Penalty-Drift Hamilton-Jacobi Equation under a Dissipation Inequality §dissipation holds.

Hence all hypotheses of Well-Posedness of the Penalty-Drift Hamilton-Jacobi Equation under a Dissipation Inequality hold, and its claims Well-Posedness of the Penalty-Drift Hamilton-Jacobi Equation under a Dissipation Inequality §comparison and Well-Posedness of the Penalty-Drift Hamilton-Jacobi Equation under a Dissipation Inequality §well-posed are claims 1 and 2.

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