Abstract

This paper is devoted to the distributed optimization problem of heterogeneous multi-agent systems, where the communication topology is jointly strongly connected and the dynamics of each agent is the first-order or second-order integrator. A new distributed algorithm is first designed for each agent based on the local objective function and the local neighbors’ information that each agent can access. By a model transformation, the original closed-loop system is converted into a time-varying system and the system matrix of which is a stochastic matrix at any time. Then, by the properties of the stochastic matrix, it is proven that all agents’ position states can converge to the optimal solution of a team objective function provided the union communication topology is strongly connected. Finally, the simulation results are provided to verify the effectiveness of the distributed algorithm proposed in this paper.

Highlights

  • Distributed control theory has gained the fast progress due to the traditional centralized control methods, such as [1], [2], have been unable to meet the demands of control engineering

  • We mainly study the distributed optimization problem of heterogeneous multi-agent system with jointly strongly connected communication topologies

  • (2) In contrast to [25], [32], [35], [37], where the distributed optimization problems were studied for first-order or secondorder multi-agent systems, this paper extends these results to heterogeneous multi-agent systems including first-order and second-order integrators simultaneously, which brings us more challenges and difficulties due to the inconsistency of each agent’s dynamics

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Summary

Introduction

Distributed control theory has gained the fast progress due to the traditional centralized control methods, such as [1], [2], have been unable to meet the demands of control engineering. Convex and nonconvex constrained consensus problems were considered for discrete-time and continuoustime multi-agent systems in [7]–[9], some effective distributed algorithms were designed and some consensus conditions were obtained. For firstorder multi-agent systems, the subgradient method was introduced to optimize a sum of convex functions [21], [22]. These results were extended to continuous-time situations [23]–[25]. Taken the identical or nonidentical constraint sets into account, the distributed optimization problems were solved by a subgradient projection algorithm for general convex objective

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