Infinite horizon one-step MPC with linearised constraints for electrically interconnected suspension system

IF 8.9 1区 工程技术 Q1 ENGINEERING, MECHANICAL Mechanical Systems and Signal Processing Pub Date : 2025-04-15 Epub Date: 2025-02-28 DOI:10.1016/j.ymssp.2025.112521
Yulin Liao , Donghong Ning , Haiping Du
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Abstract

This research introduces a novel Infinite Horizon One-Step Model Predictive Control (IHOS-MPC) algorithm with linearised constraints, specifically designed for semi-active Electrically Interconnected Suspension (EIS) systems to enhance vehicle dynamics and comfort. The proposed control approach combines an infinite predictive horizon with a control horizon of one, significantly reducing computational complexity while maintaining efficient, real-time control performance. By integrating linearised constraints, the algorithm operates within feasible limits, minimizing computational overhead without compromising control quality. The EIS system employs electromagnetic dampers consisting of direct current motors, allowing real-time adjustments to optimise damping forces and address both vertical and roll dynamics of the vehicle. Experimental validation demonstrates that the system effectively handles various road conditions, achieving notable improvements in ride comfort and stability. This study establishes the practicality and effectiveness of the IHOS-MPC with linearised constraints in real-world applications, offering a compelling solution for advancing semi-active suspension systems in modern vehicles.
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电互联悬架系统线性化约束的无限视界一步MPC
本研究介绍了一种新颖的具有线性化约束的无限地平线一步模型预测控制(IHOS-MPC)算法,专门为半主动电互联悬架(EIS)系统设计,以增强车辆的动力学和舒适性。所提出的控制方法结合了无限预测水平和一个控制水平,在保持高效、实时控制性能的同时显著降低了计算复杂度。通过整合线性化约束,该算法在可行范围内运行,在不影响控制质量的情况下最小化计算开销。EIS系统采用由直流电机组成的电磁阻尼器,允许实时调整以优化阻尼力,并解决车辆的垂直和侧滚动力学问题。实验验证表明,该系统能有效处理各种路况,在乘坐舒适性和稳定性方面均有显著改善。本研究确定了IHOS-MPC在实际应用中具有线性化约束的实用性和有效性,为推进现代车辆的半主动悬架系统提供了令人信服的解决方案。
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来源期刊
Mechanical Systems and Signal Processing
Mechanical Systems and Signal Processing 工程技术-工程:机械
CiteScore
14.80
自引率
13.10%
发文量
1183
审稿时长
5.4 months
期刊介绍: Journal Name: Mechanical Systems and Signal Processing (MSSP) Interdisciplinary Focus: Mechanical, Aerospace, and Civil Engineering Purpose:Reporting scientific advancements of the highest quality Arising from new techniques in sensing, instrumentation, signal processing, modelling, and control of dynamic systems
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