检索规则说明:AND代表“并且”;OR代表“或者”;NOT代表“不包含”;(注意必须大写,运算符两边需空一格)
检 索 范 例 :范例一: (K=图书馆学 OR K=情报学) AND A=范并思 范例二:J=计算机应用与软件 AND (U=C++ OR U=Basic) NOT M=Visual
作 者:詹逸凡 陈辛波[1] 张剑涛 李晏[1] Zhan Yifan;Chen Xinbo;Zhang Jiantao
机构地区:[1]同济大学机械与能源工程学院,上海201804
出 处:《机械制造》2024年第12期12-18,共7页Machinery
摘 要:针对轮毂电机驱动电动汽车制动和加速工况时俯仰角较大的问题,对前后转矩分配实现抗制动点头和抗驱动抬头的理论进行了研究。利用Adams/Car多体动力学仿真软件,建立麦弗逊式前悬架及拖曳臂式后悬架模型,分析前后转矩分配规则对抗制动点头率和抗驱动抬头率的影响。通过设计前后转矩分配规则,达到优化抗制动点头性能和抗驱动抬头性能的目标。通过仿真分析,表明所制定的前后转矩分配规则可以实现抗制动点头性能、抗驱动抬头性能的优化。In order to solve the problem of large pitch angle when the in-wheel motor drives the electric vehicle under braking and acceleration conditions,the theory of anti-braking nodding and anti-driving lifting realized by front and rear torque distribution was studied.The Adams/Car multi-body dynamics simulation software was used to establish the MacPherson front suspension and trailing arm rear suspension models,and the influence of front and rear torque distribution rule on anti-braking nodding rate and anti-drive lifting rate was analyzed.By designing the front and rear torque distribution rule,the goal of optimizing the anti-braking nodding performance and anti-driving lifting performance was achieved.Through simulation analysis,it is shown that the formulated front and rear torque distribution rule can realize the optimization of anti-braking nodding performance and anti-driving lifting performance.
正在载入数据...
正在载入数据...
正在载入数据...
正在载入数据...
正在载入数据...
正在载入数据...
正在载入数据...
正在链接到云南高校图书馆文献保障联盟下载...
云南高校图书馆联盟文献共享服务平台 版权所有©
您的IP:216.73.216.38