Design and analysis of multipurpose mobile manipulator for defence application and study the dynamic effects on stability of an unmanned tracked vehicle

N. Babu
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引用次数: 3

Abstract

Manipulator arms on an unmanned tracked vehicle are widely used for handling different defence application in an undulated terrain condition. Therefore, it is important to design a suitable multipurpose mobile manipulator without compromise the maneuverability of the unmanned ground vehicle. The criticality in the manipulator design is dynamic effect of the manipulator system should not affect the dynamic stability of the unmanned tracked vehicle during the motion. In this paper presents a design of two serial arm manipulator, each is having five degrees of freedom to carry mine detection sensor. Moreover, the same arm is designed to handling the mine clearance tools once the mine location is identified. In the case of mine detection, two arms are configured as parallel manipulator to carry a heavy sensor payload such as ground penetrating radar. For mine clearance, two serial arms are operating in cooperative mode with gripper for handling the mines. This paper also describes a Kinematic analysis using DenavitHertenberg method for the dual manipulator arm for determining the work envelope with consideration of vehicle operating kinematic constrains. Further, briefed about the folding and deployment trajectory for mine detection and clearance mission. The dynamics of the manipulator system while handling the heavy mine detection sensor are discussed using Newton -Euler approach. Further, integrated the dynamics of manipulator and unmanned tracked vehicle as single system and studied effect on maneuverability and stability of unmanned tracked vehicle. Here, Zero Moment Point stability index is proposed for determining the stability margin of integrated vehicle and manipulator system as a single system. The results and discussion of design, kinematic, dynamic and stability study for manipulator and vehicle during the mission are presented. The proposed method is the straight forward solution for studying the stability of integrated unmanned system.
军用多用途移动机械臂的设计与分析,研究了动力学对无人履带车辆稳定性的影响
无人履带车辆机械臂在起伏地形条件下被广泛应用于不同的防御任务。因此,在不影响无人地面车辆机动性的前提下,设计一种合适的多用途移动机械手是十分重要的。机械手设计的关键在于机械手系统的动态效应不能影响无人履带车辆在运动过程中的动态稳定性。本文设计了两种串联臂式机械手,每一臂都有五个自由度来携带地雷探测传感器。此外,同一臂的设计是在查明地雷位置后处理扫雷工具。在地雷探测的情况下,两个臂被配置为平行机械手来携带重型传感器有效载荷,如探地雷达。排雷时,两个连续臂以合作方式工作,用夹持器处理地雷。在考虑车辆运动约束的情况下,采用DenavitHertenberg方法对双机械臂进行运动学分析,确定其工作包络线。此外,还简要介绍了地雷探测和排雷任务的折叠和部署轨迹。用牛顿-欧拉方法讨论了机械臂系统搬运重型地雷探测传感器时的动力学问题。在此基础上,将机械臂动力学与无人履带车辆动力学作为一个系统进行整合,研究了其对无人履带车辆机动性和稳定性的影响。在此,提出了零力矩点稳定指标,用于确定整车和机械手集成系统作为单一系统的稳定裕度。介绍了任务期间机械臂和飞行器的设计、运动学、动力学和稳定性研究的结果和讨论。该方法是研究综合无人系统稳定性的直接解决方案。
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