Development of an immersive training vest

A. Bodenhamer, C. Dagli, S. Corns, I. Guardiola
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引用次数: 3

Abstract

Teams of students across four semesters have serially designed subsystems to be integrated into a cohesive immersive training vest system for military applications. The vest enhances the ability to provide realistic and real-time feedback on both battlefield effects (e.g. weapons fire) as well as performance information (e.g. correct/incorrect cultural response). The integrated system provides improved capabilities for real time training performance feedback though the following technology development efforts: robust zigbee wireless mesh networking, composite plate-mounted tactor motors for haptic feedback, hand/arm gesture tracking, and indoor location tracking. These technologies have been developed and tested as subsystems and are being integrated into a mock training facility at Missouri S&T for up to 15 individual trainees. The system development has been undertaken by an interdisciplinary student and faculty team relying on expertise in Systems Engineering, Electrical and Computer Engineering, Computer Science, and Mechanical and Aerospace Engineering. The system was primarily developed as an applied exercise for a series of two introductory graduate-level courses for Systems Engineering. Thus students followed a comprehensive design process; from requirements derivation, functional analysis, guided trade studies, interface control, etc. towards a final detailed design. The students were personally mentored by faculty and PhD students, as well as industry mentors from the Boeing Company through a structured three phase design review process. Students applied analytical tools for system optimization and simulation to derive design parameters and estimate system performance against technical requirement thresholds. Currently, the subsystems have been prototyped and tested to meet functional requirements and the full integrated system is expected to be completed by May 2012 and will begin design validation at that time.
一种沉浸式训练背心的开发
四个学期的学生团队连续设计了子系统,将其集成到一个具有凝聚力的沉浸式训练背心系统中,用于军事应用。背心增强了在战场效果(例如武器火力)和性能信息(例如正确/不正确的文化反应)上提供真实和实时反馈的能力。集成系统通过以下技术开发工作提供了改进的实时训练性能反馈能力:稳健的zigbee无线网状网络,用于触觉反馈的复合板安装式因素电机,手/手臂手势跟踪和室内位置跟踪。这些技术已经作为子系统进行了开发和测试,并被整合到密苏里科技大学的模拟训练设施中,最多可容纳15名学员。该系统的开发是由一个跨学科的学生和教师团队进行的,他们依靠系统工程、电气和计算机工程、计算机科学以及机械和航空航天工程方面的专业知识。该系统主要是作为系统工程的两门入门级研究生课程的一系列应用练习而开发的。因此,学生遵循了一个全面的设计过程;从需求推导,功能分析,指导贸易研究,接口控制等到最终的详细设计。学生们由教员和博士生以及波音公司的行业导师亲自指导,通过结构化的三个阶段的设计审查过程。学生应用分析工具进行系统优化和仿真,得出设计参数,并根据技术要求阈值估计系统性能。目前,子系统已经原型化并进行了测试,以满足功能需求,完整的集成系统预计将于2012年5月完成,届时将开始设计验证。
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