You are in:Home/Publications/New optical soliton solutions of the popularized anti‑cubic nonlinear Schrödinger equation versus its numerical treatment | |
Dr. Reda Abd-El-Kader Mohamed Ibrahim :: Publications: |
Title: | New optical soliton solutions of the popularized anti‑cubic
nonlinear Schrödinger equation versus its numerical
treatment |
Authors: | Emad H. M. Zahran; · Ahmet Bekir; · Reda A. Ibrahim; |
Year: | 2023 |
Keywords: | The nonlinear Schrödinger equation · Extended simple equation method · Extended direct algebraic method · Differential transform method (DTM) · Traveling wave solutions · Numerical solutions |
Journal: | Optical and Quantum Electronics |
Volume: | Not Available |
Issue: | Not Available |
Pages: | Not Available |
Publisher: | SpringerLink |
Local/International: | International |
Paper Link: | Not Available |
Full paper | Reda Abd-El-Kader Mohamed Ibrahim _R3_( popularized anti-cubic nonlinear Schrödinger equation) (ESEM+EDAM+DTM)_Vol(55)_Issu 4(Reda+Emad+Bakir)_Accepted 1-2023 (Otical and Quantum electronic- Q2).pdf |
Supplementary materials | Not Available |
Abstract: |
In our current article, we will use two diverse methods namely the extended simple equation method (ESEM) and the extended direct algebraic method (EDAM) to extract the soliton solutions of popularized anti-cubic nonlinear Schrödinger equation that is very useful in the field of the optics. The obtained rational solutions via these two reliable, effective techniques denote the importance of these methods. Moreover, we will implement the differential transform method (DTM) which is one of the most, new semi-analytical and numerical methods to construct the corresponding numerical solutions for all achieved soliton solutions by the above two methods. We will compare between the soliton solutions introduced by the two suggested methods with the numerical solutions obtained by the DTM. It is clear that there exist similarity and convergence between the traveling wave solutions achieved by the ESEM, EDAM and the numerical solutions achieved by DTM. The novelty of our achieved solutions will appear when it compared by [1]. |