Simulating the Dynamics of Oscillating Differential Equations of Mass in Motion
DOI:
https://doi.org/10.62054/ijdm/0101.07Аннотация
This research explores the practical implementation and simulation of oscillatory differential equations concerning objects in motion. The methodology incorporates power series polynomials, ensuring adherence to the fundamental properties of these functions. The novel approach is applied to various oscillatory differential equations, encompassing harmonic motion, spring motion, dynamic mass motion, Betiss and Stiefel equations, and nonlinear differential equations. The results demonstrate computational reliability, showcasing enhanced accuracy and quicker convergence compared to currently examined methods.
Dynamic motion, Genesio, Harmonic motion, Mass, Spring of motion
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