TheoremBase

The von Neumann Hamiltonian satisfies the structure condition and momentum continuity at bounded positions, so the general comparison theorem under Wasserstein semicontinuity applies; under the tangent conjecture minus the free entropy is an admissible penalty.

Proof

Each result cited below is universally quantified over the data in its own statement.

By The Controlled von Neumann Hamilton-Jacobi-Bellman Equation with Free Langevin Noise in a Wall on Noncommutative Laws §equation, (EvN)(\mathrm{E}^{\mathrm{vN}}) is the equation (E)(\mathrm{E}) of The Discounted Hamilton-Jacobi-Bellman Equation with Free Langevin Noise in a Wall on Noncommutative Laws §score-form with the Hamiltonian H=HvN\mathcal{H}=\mathcal{H}^{\mathrm{vN}}, which is a function Σ2d2→R\Sigma^{2}_{2d}\to\mathbb{R} by The Controlled von Neumann Hamiltonian on Phase-Space Noncommutative Laws §hamiltonian; accordingly, by the convention stated in Free-Energy-Penalised Viscosity Subsolutions, Supersolutions and Solutions of the Discounted HJB Equation with Free Langevin Noise in a Wall, the penalised sub- and supersolutions and solutions of (EvN)(\mathrm{E}^{\mathrm{vN}}) are those of (E)(\mathrm{E}) with this Hamiltonian.

Claims 1 and 2. Since ff is uniformly continuous for the metric of Plan Jets and Hamiltonians on Square-Integrable Noncommutative Laws: Standing Notation §metrics, HvN\mathcal{H}^{\mathrm{vN}} satisfies the structure condition at bounded positions by The Controlled von Neumann Hamiltonian at Bounded Positions: Evaluation, the Structure Condition and Uniform Continuity in the Momentum §structure, and it is uniformly continuous in the momentum at bounded positions by The Controlled von Neumann Hamiltonian at Bounded Positions: Evaluation, the Structure Condition and Uniform Continuity in the Momentum §momentum. These are the hypotheses on the Hamiltonian in Comparison and Uniqueness under Wasserstein Semicontinuity for Free-Energy-Penalised Viscosity Solutions of the Discounted HJB Equation with Free Langevin Noise in a Wall, whose remaining data (the setting, the domain D\mathcal{D} and semicontinuity on D\mathcal{D} in (Σd,R,W2)(\Sigma_{d,R},W_{2})) are those of the present statement. Hence claim 1 is Comparison and Uniqueness under Wasserstein Semicontinuity for Free-Energy-Penalised Viscosity Solutions of the Discounted HJB Equation with Free Langevin Noise in a Wall §comparison and claim 2 is Comparison and Uniqueness under Wasserstein Semicontinuity for Free-Energy-Penalised Viscosity Solutions of the Discounted HJB Equation with Free Langevin Noise in a Wall §uniqueness, both with H=HvN\mathcal{H}=\mathcal{H}^{\mathrm{vN}}.

Claim 3. Under the stated tangent assumption, (Dχ,−χ∗)(\mathcal{D}_{\chi},-\chi^{*}) is a free entropy penalty by Conditional Comparison and Uniqueness for the Linear-Quadratic HJB Equation with Free Langevin Noise in a Wall, Penalised by Voiculescu's Free Entropy §penalty. The pair (D0,E0)(\mathcal{D}_{0},\mathcal{E}_{0}) of The Discounted Hamilton-Jacobi-Bellman Equation with Free Langevin Noise in a Wall on Noncommutative Laws: Standing Notation §free-energy is an arbitrary free entropy penalty, and claims 1 and 2 were proved for an arbitrary one. The objects D\mathcal{D}, E\mathcal{E}, DΞ\mathcal{D}_{\Xi} and Ξ\Xi of The Discounted Hamilton-Jacobi-Bellman Equation with Free Langevin Noise in a Wall on Noncommutative Laws: Standing Notation §free-energy are determined by (D0,E0)(\mathcal{D}_{0},\mathcal{E}_{0}) and RR, so for (D0,E0)=(Dχ,−χ∗)(\mathcal{D}_{0},\mathcal{E}_{0})=(\mathcal{D}_{\chi},-\chi^{*}) the equation (EvN)(\mathrm{E}^{\mathrm{vN}}), the penalised notions and the domain D\mathcal{D} are those attached to this pair, and claims 1 and 2 are exactly the statements for it. In that case D=D0∩DR=Dχ∩DR\mathcal{D}=\mathcal{D}_{0}\cap\mathcal{D}_{R}=\mathcal{D}_{\chi}\cap\mathcal{D}_{R} by The Discounted Hamilton-Jacobi-Bellman Equation with Free Langevin Noise in a Wall on Noncommutative Laws: Standing Notation §free-energy.

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