A New Estimate on the Two-Dimensional Indirect Coulomb Energy
Rafael D. Benguria, Pablo Gallegos, Matej Tusek

TL;DR
This paper establishes a tighter lower bound on the two-dimensional indirect Coulomb energy in quantum mechanics, improving upon previous bounds by reducing the constant factor involved.
Contribution
It introduces a new universal lower bound on the Coulomb energy in 2D quantum systems, featuring a smaller constant than the existing Lieb--Solovej--Yngvason bound.
Findings
New lower bound with constant C≈5.90
Improved bound is an alternative to the Lieb--Solovej--Yngvason bound
Includes an additive gradient energy term
Abstract
We prove a new lower bound on the indirect Coulomb energy in two dimensional quantum mechanics in terms of the single particle density of the system. The new universal lower bound is an alternative to the Lieb--Solovej--Yngvason bound with a smaller constant, C=(4/3)^{3/2}\sqrt{5 \pi -1} \approx 5.90 < C_{LSY}= 192\sqrt{2 \pi} \approx 481.27, which also involves an additive gradient energy term of the single particle density.
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