Maximum principle for optimal control of infinite horizon stochastic difference equations driven by fractional noises
Yuecai Han, Yuhang Li

TL;DR
This paper develops a stochastic maximum principle for infinite horizon control problems driven by fractional noises, addressing the challenges posed by fractional noises on an infinite time scale, and applies it to an optimal investment scenario.
Contribution
It introduces a novel maximum principle for infinite horizon stochastic difference equations with fractional noises, extending control theory to fractional stochastic systems.
Findings
Established a maximum principle for fractional noise-driven systems
Solved an optimal investment problem using the developed theory
Addressed the challenge of fractional noises on infinite horizons
Abstract
In this paper, infinite horizon stochastic difference equations and backward stochastic difference equations with fractional noises are studied. The main difficulty comes from fractional noises on infinite horizon. Motivated by discrete-time optimal control problem driven by fractional noises and on infinite horizon, the stochastic maximum principle for discrete-time control problem driven by fractional noises in infinite horizon is proved. As an application, an optimal investment problem is solved.
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Taxonomy
TopicsStochastic processes and financial applications · Nonlinear Differential Equations Analysis · Fractional Differential Equations Solutions
