Achieving Constrained Optimization Digraphs Within Preset-Time via Integral Sliding Mode Control

This work presents an estimator-based distributed preset-time algorithm that effectively addresses the equality-constrained optimization problem on directed graphs (digraphs). Initially, we propose an innovative distributed preset-time estimator to accurately estimate the global information related to the cost function. Building on this, we develop an estimator-based distributed robust preset-time optimization algorithm incorporating integral sliding mode control, which is specifically tailored for strongly connected networks. Compared with existing algorithms, the proposed algorithm features three key innovations: improved precision in convergence time, enhanced robustness against disturbances, and expanded applicability to network topologies. Finally, we validate the preset-time optimization algorithm through numerical simulations, demonstrating that its convergence rate significantly outperforms those of current finite- and fixed-time algorithms.

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Publication Details

Journal
IEEE Transactions on Cybernetics
Published
2025-09-16
DOI
https://doi.org/10.1109/tcyb.2025.3605867
Primary Topic
Advanced Control Systems Optimization
Type
article
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article

Achieving Constrained Optimization Digraphs Within Preset-Time via Integral Sliding Mode Control

Yongduan Song, Siyu Chen
IEEE Transactions on Cybernetics
Advanced Control Systems Optimization
article

Achieving Constrained Optimization Digraphs Within Preset-Time via Integral Sliding Mode Control

Yongduan Song, Siyu Chen
article en

Abstract

This work presents an estimator-based distributed preset-time algorithm that effectively addresses the equality-constrained optimization problem on directed graphs (digraphs). Initially, we propose an innovative distributed preset-time estimator to accurately estimate the global information related to the cost function. Building on this, we develop an estimator-based distributed robust preset-time optimization algorithm incorporating integral sliding mode control, which is specifically tailored for strongly connected networks. Compared with existing algorithms, the proposed algorithm features three key innovations: improved precision in convergence time, enhanced robustness against disturbances, and expanded applicability to network topologies. Finally, we validate the preset-time optimization algorithm through numerical simulations, demonstrating that its convergence rate significantly outperforms those of current finite- and fixed-time algorithms.

IEEE Transactions on CyberneticsVol. 56(1)
Chongqing University (CN)
Openalex Percentile: Top 69%
Advanced Control Systems Optimization
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