车辆间隙分析程序

R. A. Jones, G. Mckinley, D. C. Creighton, J. Tingle
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摘要

未来作战系统作战要求文件要求有人驾驶和无人驾驶地面车辆能够通过1.5至4.0米宽的间隙。间隙包括自然和人为的障碍。克服战斗空间差距需要有效执行四项任务的能力:预测、定义、避免和击败。无法克服战区内的差距将严重损害未来部队的反应能力、敏捷性和可持续性。美国陆军工程研究与发展中心(ERDC)的研究人员在车辆机动性领域工作,已经开发出预测车辆与地形力学物理相互作用的方法。这种基于物理的模拟方法利用ERDC进行的研究,将历史经验实验室和现场评估与集总参数和数值分析相结合,以开发地形的模拟环境。地形力学模型与二维车辆动力学模型相结合,预测通过可变形地形或间隙机动所需的牵引力。设计了车辆动力学模型,检测车辆底盘与地形的接触情况,进行车辆和间隙几何分析。接触元件的设计目的是在接触过程中提供正常阻力,并作为代表车辆底盘和地形之间阻力的阻力元件。地形力学与车辆动力学相结合的模型称为车辆间隙分析程序(VGAP)。本文介绍了地形力学研究在VGAP开发中的应用,并对VGAP进行了验证。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Vehicle Gap Analysis Program
The Future Combat System Operational Requirements Document requires that manned and unmanned ground vehicles be capable of negotiating gaps 1.5- to 4.0-meters wide. Gaps include both natural and manmade obstacles. Overcoming battlespace gaps requires the ability to effectively conduct four tasks: prediction, definition, avoidance, and defeat. The inability to overcome gaps within the theater of operations will significantly impair the Future Force's responsiveness, agility, and sustainability. Researchers at the US Army Engineer Research and Development Center (ERDC), working in the field of vehicle mobility have developed methods to predict the physical interactions of vehicles with terrain mechanics. This physics-based simulation method uses research conducted at the ERDC to combine historical empirical laboratory and field evaluations with lumped parameter and numerical analysis to develop a simulated environment of the terrain. The terrain mechanics modeling is combined with a 2-dimensional vehicle dynamics model that predicts the traction required to maneuver through deformable terrains or gaps. The vehicle dynamics model is also designed to detect contact between the vehicle chassis and the terrain for vehicle and gap geometry analysis. The contact element is designed to provide both normal resistances during contact and act as a drag component representing the drag resistance between the vehicle chassis and the terrain. The combined terrain mechanics and vehicle dynamics models are called the Vehicle Gap Analysis Program (VGAP). This paper presents the application of the terrain mechanics research conducted in development of the VGAP and a verification of the VGAP.
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