On the shock wave structures in anisotropy magnetoplasmas

• DOI: 10.1063/5.0173000
• Publication Date: 2023-10-06T04:31:45Z
• Authors: Wedad Albalawi; Ma’mon Abu Hammad; Muhammad Khalid; Abdul Kabir; C. G. L. Tiofack; S. A. El-Tantawy
• Keywords: Dissipative system; Inertia; QC1-999; Mechanics; 01 natural sciences; Amplitude; Electron; Quantum mechanics; Plasma; 0103 physical sciences; Computational physics; Shock (circulatory); Classical mechanics; Internal medicine; Quantum electrodynamics; Physics; Nonlinear Solitary Waves; Dusty Plasmas: Interdisciplinary Research Field; Astronomy and Astrophysics; Statistical and Nonlinear Physics; Atomic and Molecular Physics, and Optics; Space Weather and Magnetospheric Physics; Physics and Astronomy; Shock wave; Dissipation; Physical Sciences; Nonlinear system; Anisotropy; Medicine; Rogue Waves in Nonlinear Systems

In this work, the propagation of nonlinear electrostatic shock wave structures in an anisotropy pressure magnetoplasma composed of warm inertial ions and inertia-less Maxwellian electrons is reported. For this purpose, the technique of reductive perturbation is applied for reducing fluid equations of the current model to the Korteweg–de Vries Burgers (KdVB) equation with a second-order dissipative term and the KdVB–Kuramoto (KBK) equation with both second- and fourth-order dissipative terms. The impact of various plasma parameters, including the parallel ion pressure, perpendicular ion pressure, and dissipation parameter, on the significant characteristics of the shock wave profile is examined and discussed. In addition, a comparison between the profiles of KdVB shocks and KdVB–Kuramoto shocks is reported. We expect that KBK shock wave amplitudes become larger than the KdVB ones by taking the fourth-order dissipative into consideration. Thus, the results of the KBK equation may treat the difference between the theoretical and laboratory results or satellite observations.