Abstract
This paper studies the optical soliton wave solutions of the fractional complex paraxial wave dynamical (FPWD) model with Kerr media. This model investigates the frequency of the beam obeying that reveals non-dispersive and non-diffractive Spatio-temporal localized wave envelopes promulgating in optical Kerr media. This model is equivalently the well-known nonlinear Schrodinger equation. These two models concentrate on the nonlinear visual medium to increase its strength and increase the nonlinear optical operation's efficiency. Three recent computational schemes are employed to investigate the considered model's abundant wave solutions; these solutions are then used to evaluate the initial and boundary conditions. The solutions' accuracy is investigated by calculating the absolute error between solutions exact and approximate solutions. Additionally, the solution's stability is checked by employing Hamiltonian system properties. The results' physical interpretation is explained through some different sketches in 2D, 3D, and density plots.