Transient behavior of the solutions to the second order difference equations by the renormalization method based on Newton-Maclaurin expansion
Cheng-shi Liu

TL;DR
This paper applies a renormalization method based on Newton-Maclaurin expansion to analyze the transient behavior of second order difference equations, providing a natural alternative to multi-scale methods.
Contribution
It introduces a novel renormalization approach using Newton-Maclaurin expansion to study transient solutions of difference equations, emphasizing its naturalness over existing multi-scale methods.
Findings
Effective description of transient behavior using elementary functions
Demonstrates the method's advantages over multi-scale approaches
Applied to important second order nonlinear difference equations
Abstract
The renormalization method based on the Newton-Maclaurin expansion is applied to study the transient behavior of the solutions to the difference equations as they tend to the steady-states. The key and also natural step is to make the renormalization equations to be continuous such that the elementary functions can be used to describe the transient behavior of the solutions to difference equations. As the concrete examples, we deal with the important second order nonlinear difference equations with a small parameter. The result shows that the method is more natural than the multi-scale method.
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Taxonomy
TopicsNonlinear Dynamics and Pattern Formation · Fractional Differential Equations Solutions · Mathematical and Theoretical Epidemiology and Ecology Models
