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液压位置伺服系统强化学习滑模控制研究

王天雷 王晨旭 辛增淼 贺跃帮 邱光繁 邓安安

液压与气动2025,Vol.49Issue(11):88-97,10.
液压与气动2025,Vol.49Issue(11):88-97,10.DOI:10.11832/j.issn.1000-4858.2025.11.010

液压位置伺服系统强化学习滑模控制研究

Research on Reinforcement Learning-based Sliding Mode Control for Hydraulic Position Servo Systems

王天雷 1王晨旭 2辛增淼 2贺跃帮 2邱光繁 3邓安安4

作者信息

  • 1. 五邑大学 电子与信息工程学院,广东 江门 529020
  • 2. 五邑大学机械与自动化工程学院,广东 江门 529020
  • 3. 江门市蒙德电气股份有限公司,广东 江门 529040
  • 4. 北部湾大学电子与信息工程学院,广西钦州 535011
  • 折叠

摘要

Abstract

To address the limitations in control precision and robustness of hydraulic position servo systems,an intelligent adaptive control strategy combining the deep deterministic policy gradient algorithm with sliding mode control is proposed.A coupled electro-hydraulic asymmetric cylinder system model is established on the AMESim-Simulink platform,and the integration of the sliding mode control module with the reinforcement learning module is validated.The designed controller,combining deep deterministic policy gradient and sliding mode control,enables online self-tuning of sliding surface gains and chattering suppression factors.Simulation scenarios under three typical operating conditions-step input,sinusoidal input,and composite disturbances-are constructed.Results show that the proposed strategy achieves rise and settling times of 0.82 s and 0.83 s,respectively,in step tracking,outperforming radial basis function-based sliding mode control and conventional sliding mode control;under disturbance conditions,the maximum tracking error remains below 0.003 m,effectively suppressing system chattering.These findings demonstrate the proposed method's superior dynamic response and robustness in complex environments,providing significant implications for enhancing the intelligence and control performance of hydraulic servo systems.

关键词

液压位置伺服系统/强化学习/位置跟踪控制/联合仿真

Key words

hydraulic position servo system/reinforcement learning/position tracking control/co-simulation

分类

机械工程

引用本文复制引用

王天雷,王晨旭,辛增淼,贺跃帮,邱光繁,邓安安..液压位置伺服系统强化学习滑模控制研究[J].液压与气动,2025,49(11):88-97,10.

基金项目

广西科技计划项目(2025GXNSFHA069191) (2025GXNSFHA069191)

江门市科技计划项目(2022JC01021) (2022JC01021)

液压与气动

OA北大核心

1000-4858

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