First Order Linear Proportional Difference Equation with Integration Factor the $(s,t)$-Pantograph Function
Ronald Orozco L\'opez

TL;DR
This paper introduces a novel method using the $(s,t)$-integration factor involving the $(s,t)$-Pantograph function to solve first-order linear proportional difference equations, generalizing classical functions and equations.
Contribution
It develops the $(s,t)$-integration factor method and applies it to solve first-order linear proportional difference equations and their $(s,t)$-analogues, extending existing solution techniques.
Findings
Solutions to first-order linear proportional difference equations are obtained.
The $(s,t)$-Pantograph function generalizes the partial Theta function.
The method is applied to the $(s,t)$-analog of Bernoulli's equation.
Abstract
In this paper, we find solutions to first-order linear proportional difference equations via the -integration factor method. The -integration factor involves the -Pantograph function, which is a generalization of the partial Theta function. Other equations are solved including the -analog of the Bernoulli equation.
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Taxonomy
TopicsUrban Transport Systems Analysis · Railway Systems and Energy Efficiency · Brake Systems and Friction Analysis
