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March 13, 2026IMA Journal of Applied Mathematics0 citations

On an analogy between the Wiener–Hopf formulations of discrete and continuous diffraction problems

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AKA I KorolkovRAR C AssierAKA V Kisil

Key Points

  • To unify the framework for deriving Wiener-Hopf equations in discrete and continuous diffraction scenarios.
  • Utilized discrete Green's identity for analysis.
  • Introduced discrete normal derivative concepts.
  • Illustrated validity using two-dimensional canonical diffraction problems.
  • Extended findings to three-dimensional problems.
  • Established a formal analogy between discrete and continuous Wiener-Hopf equations.
  • Demonstrated kernel preservation within the Chebotarev-Daniele-Khrapkov class.
  • Provided solutions for certain discrete diffraction problems.

Abstract

Abstract This article is dedicated to unifying the framework used to derive the Wiener–Hopf equations arising from some discrete and continuous wave diffraction problems. The main tools are the discrete Green’s identity and the appropriate notion of discrete normal derivative. The resulting formal analogy between the Wiener–Hopf equations allows one to effortlessly move between the discrete and continuous formulations. The validity is illustrated through several famous two-dimensional canonical diffraction problems and extended to three-dimensional problems. It is shown that the analogy preserves kernels of the Chebotarev–Daniele–Khrapkov class, which allows the solution of certain discrete problems.

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Cite This Study

Korolkov et al. (2026) studied this question.

synapsesocial.com/papers/69b3acc502a1e69014ccecb7https://doi.org/10.1093/imamat/hxag004
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