Payne-Weinberger Inequality for Quantum Dot Dirac Operators in Planar Domains

arXiv Math · · 1 min read · Natural Sciences

Read research and analysis on Payne-Weinberger Inequality for Quantum Dot Dirac Operators in Planar Domains published by ICANEWS, a global research journal for emerging researchers.

Key Takeaways

  • A Payne-Weinberger type inequality was proven for quantum dot Dirac operators.
  • The inequality provides a sharp upper bound for the first positive eigenvalue.
  • This upper bound depends only on the isoperimetric deficit of the domain.

Overview

This work establishes a Payne-Weinberger type inequality for quantum dot Dirac operators. The inequality applies to operators defined on bounded and simply connected planar domains. It provides a sharp upper bound for the first positive eigenvalue of these operators. This upper bound is solely dependent on the isoperimetric deficit of the domain.

Approach

The proof of this inequality leverages a recently investigated connection with the $\overline\partial$-Robin Laplacian. By utilizing this connection, an analogous inequality was established for the first eigenvalue of the $\overline\partial$-Robin Laplacian. This, in turn, relied on the corresponding inequality previously known for the Robin Laplacian.

Findings

  • A Payne-Weinberger type inequality was proven for quantum dot Dirac operators.
  • This inequality is defined for operators on bounded and simply connected planar domains.
  • The inequality provides a sharp upper bound for the first positive eigenvalue of these operators.
  • The upper bound's dependence is exclusively on the isoperimetric deficit of the domain.

Research Information

Institution
arXiv
Original Study
View Publication
Source
arXiv Math

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