生命周期分析以提高美国陆军非战术车辆的可持续性

Madison Faust, Zachary Ortman, Austin Chambers, M. Fitzpatrick, Jamir Gibson, Forde Norris, M. Williams, A. D. Johantges, Jae Kim, B. Riser, Brad C. McCoy, F. T. Davidson
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引用次数: 0

摘要

近年来,美国陆军越来越多地推动减少所有设施和行动中的二氧化碳排放。这是提高关键国防资产的可持续性和弹性的更广泛努力的一部分,通过允许它们运行更长的时间,降低环境影响,降低成本,提高任务准备程度。帮助减少陆军设施排放的一个建议解决方案是用全电动车辆取代传统的内燃机车辆。特别是,非战术车辆车队的主要兴趣是迅速转换为电动传动系统。这项工作的主要目的是在考虑到陆军设施的具体任务要求和基础设施时,评估全电动车辆是否具有最低的生命周期排放。这项工作使用生命周期分析方法来比较不同动力传动系统的车辆的碳排放量,这些车辆位于美国不同的电网区域,行驶不同的距离,以实现其操作员的必要任务。这些车辆设计、充电和使用方式的变化表明,尽管电动汽车在许多情况下是最好的,但它们并不总是正确的选择,以最大限度地减少与陆军设施运输服务相关的碳排放。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Lifecycle Analysis to Improve the Sustainability of the United States Army’s Non-Tactical Vehicle Fleet
In recent years, the United States Army has increasingly pushed to reduce carbon dioxide emissions across all installations and operations. This push is part of a broader effort to increase the sustainability and resilience of critical defense assets, by allowing them to operate for longer periods of time, with lower environmental impacts, lower costs, and increased mission readiness. One proposed solution to help reduce the emissions of Army installations is to replace conventional internal combustion engine vehicles with fully electrified vehicles. In particular, the non-tactical vehicle fleet is of primary interest to be rapidly converted to electrified drivetrains. The primary purpose of this work is to assess whether fully electrified vehicles have the lowest life-cycle emissions when considering the specific mission requirements and infrastructure present at Army installations. This work uses lifecycle analysis methods to compare the carbon emissions for vehicles with different drivetrains, located in different electric grid regions across the United States, while driving different distances to achieve the necessary missions of their operators. These variations in how the vehicles are designed, charged, and used showcases that, while electric vehicles are the best for many scenarios, they are not always the correct choice to maximize the total reduction in carbon emissions associated with transportation services at Army installations.
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