电动静液压式互联馈能悬架参数优化与特性分析OA
Parameter Optimization and Performance Analysis of Electrically Controlled Electro-hydraulic Interconnected EnergySuspension
为提高不同工况下车辆的减振性能,同时回收由路面不平引起的车辆振动能量,提出一种适应不同工况的电动静液压互联式馈能悬架系统.在分析互联悬架结构的基础上建立其数学模型,改变悬架输入参数,通过仿真分析4种工况下互联悬架的阻尼力特性与馈能特性.对比液压内部参数对互联悬架特性的影响,优化主要参数,在保证悬架阻尼力特性的前提下,使馈能功率最大化.在蛇形和凸块路面条件下进一步验证了该互联悬架抗侧倾和抗俯仰性能.结果表明:不同工况下互联悬架阻尼力特性一致且馈能特性相近,阻尼力及平均馈能功率随路面输入频率和振幅的增加而增加;优化主要参数后馈能特性明显提升;与安装传统悬架相比,安装该系统的车辆拥有更优异的平顺性和操稳性.
To enhance vibration damping performance of vehicles under various operating conditions and recover the en-ergy from road-induced vibrations,a novel electro-hydraulic interconnected energy-regeneration suspension system was pro-posed.A mathematical model of the interconnected suspension was developed and used to simulate and analyze the damping force and energy recovery under four conditions by changing the suspension input parameters.The effects of internal hydrau-lic parameters on the suspension's characteristics were compared,and key parameters were optimized to maximize energy re-generation while maintaining the suspension's damping performance.Further validation is conducted under serpentine and bump road conditions to assess the system's anti-roll and anti-pitch capabilities.The results indicate that the suspension's damping characteristics remain consistent,and its energy-regenerative properties are similar under different conditions.Both damping force and average energy regeneration power increase with the increase of frequency and amplitude of road inputs.After optimizing the key parameters,energy regeneration performance is significantly improved.Compared to traditional sus-pensions,vehicles equipped with this system demonstrate superior ride comfort and handling stability.
寇发荣;韩楚寰;刘朋涛;李强强;宋阳阳
西安科技大学 机械工程学院,西安 710054||西安科技大学 电气与控制工程学院,西安 710054西安科技大学 机械工程学院,西安 710054西安科技大学 机械工程学院,西安 710054西安科技大学 机械工程学院,西安 710054西安科技大学 机械工程学院,西安 710054
交通工程
振动与波电液互联能量回收数学建模参数优化
vibration and waveelectro-hydraulic interconnectionenergy recoverymathematical modelingparameter optimization
《噪声与振动控制》 2026 (1)
184-190,233,8
国家自然科学基金(51775426)西安市科技计划项目(21XJZZ0039)咸阳市重点研发计划项目(2021ZDYF-GY-0027)
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