模块化(生物学)
模块化设计
系统工程
名义本金
汽车工业
适应性
计算机科学
工程类
运筹学
风险分析(工程)
业务
操作系统
生态学
遗传学
财务
生物
航空航天工程
作者
Alparslan Emrah Bayrak,M. Mert Egilmez,Heng Kuang,Xingyu Li,Jong Min Park,Edward Umpfenbach,Erik Anderson,David Gorsich,Jack Hu,Panos Y. Papalambros,Bogdan I. Epureanu
标识
DOI:10.1109/tsmc.2018.2827387
摘要
The value proposition for ground vehicle modularity in the U.S. Army and other services has been a topic of continuing debate. Studies to date have largely focused on individual system elements such as manufacturing or maintenance, lacking a holistic perspective of the implications of modularity for the entire fleet operation and life-cycle. The U.S. Army Science and Technology community has demonstrated the technical feasibility of large-scale, transformative ground vehicle modularity, but the business case for modularity remains incomplete. There are multiple criteria tradeoffs between modular and mission-specific (conventional) vehicle platforms, such as total life-cycle cost, mission utility, personnel requirements, and fleet adaptability. This paper presents a system-of-systems framework to address these tradeoffs to support high-level decisions on the strategic feasibility of ground vehicle modularity. We demonstrate this framework with a notional example and an application to the Joint Tactical Transport System (JTTS), a U.S. Army Tank Automotive Research, Development and Engineering Center demonstrator program. Under certain modeling assumptions with regards to the operation of a modular fleet, results for the JTTS study indicate that modularity can lead to significant cost savings at the expense of increased personnel requirements.
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