Consequence of head-on collision and double-layer soliton with linear analysis in multi-component dusty plasmas Article

Imon, U, Alam, MS. (2024). Consequence of head-on collision and double-layer soliton with linear analysis in multi-component dusty plasmas . 64(2), 10.1002/ctpp.202300081

cited authors

  • Imon, U; Alam, MS

authors

abstract

  • The unmagnetized multicomponent collisional dusty plasmas have been considered to investigate the consequence of head-on collision of dust-ion-acoustic waves (DIAWs) with nonlinear characteristic analysis of DIAWs and collisionless plasmas have been considered for studying the production of double layer (DL). The plasma system consists of positively charged ion fluid, negatively charged cold dust fluid, thermal electrons, q-nonextensive electrons, and immobile background neutral particles. The extended PoincarĂ©-Lighthill-Kuo (ePLK) method has been used to derive two-sided damped Korteweg–De Vries (dKdV) equations and the reductive perturbation method has been used to derive modified KdV (mKdV) equation and the standard Gardner equation (SGE). Linear dispersion relation is derived using linear perturbation technique. The nonlinear propagation of DIA Gardner solitons (DIAGSs) and double layers (DLs) as well as phase shifts have been investigated for the effects of the concerned parameters. It is found that the DIA soliton structures are significantly modified by the species densities, dust mass, and superextensive parameter. The rarefactive dip shape solitary Gardner solitons become produced for the effects of concerned parameters and the positive (negative) DLs become produced in the range of (Formula presented.) ((Formula presented.)) for the effect of temperatures on the species. The superextensive and the subextensive parameters of electrons significantly affect the DL soliton structures.

publication date

  • February 1, 2024

Digital Object Identifier (DOI)

volume

  • 64

issue

  • 2