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August 1, 20250 citations

Solitary wave solutions, periodic and superposition solutions to the system of first-order (2+1)-dimensional Boussinesq's equations derived from the Euler equations for an ideal fluid model

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PRP. RozmejAKAnna Karczewska

Key Points

  • The study explores families of (2+1)-dimensional traveling wave solutions derived from nonlinear wave equations.
  • Solitary and periodic solutions, including cnoidal types, are identified for Boussinesq's equations modeling ideal fluid behavior.
  • The investigation begins with first-order Boussinesq equations, leading to a wave equation for velocity potential.
  • Findings enhance understanding of wave dynamics in fluid models, contributing to advances in fluid mechanics.

Abstract

Abstract This article concludes the study of (2+1) -dimensional nonlinear wave equations that can be derived in a model of an ideal fluid with irrotational motion. In the considered case of identical scaling of the x, y variables, obtaining a (2+1) -dimensional wave equation analogous to the KdV equation is impossible. Instead, from a system of two first-order Boussinesq equations, a non-linear wave equation for the auxiliary function f (x, y, t) defining the velocity potential can be obtained, and only from its solutions can the surface wave form (x, y, t) be obtained. We demonstrate the existence of families of (2+1) -dimensional traveling wave solutions, including solitary and periodic solutions, of both cnoidal and superposition types. MSC Classification: 02. 30. Jr, 05. 45. -a, 47. 35. B, 47. 35. Fg

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Cite This Study

Rozmej et al. (2025) studied this question.

synapsesocial.com/papers/689a0c6be6551bb0af8cfce0https://doi.org/10.21203/rs.3.rs-7081945/v1
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