Connected and autonomous electric and fuel-cell powered agricultural power units: A feasibility study.

Daniel Iftime, C. Laguë
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Abstract

Agricultural labour shortages coupled with a required increase in global food production and increasingly stringent sustainable farming legislation are creating a ‘perfect storm’ opportunity for a much greater reliance on electric and autonomous technologies in agriculture. Fuel cell (FC), electric vehicle (EV), and connected and autonomous vehicle (CAV) technologies are being successfully adapted to meet the needs of several on-road and off-road vehicular applications. In this article, we focus on the feasibility of integrating FC, EV, and CAV technologies to power units adapted to the autonomous completion of agricultural field operations. Such small-scale autonomous agricultural power units (AAPU) would be intended for cluster/fleet operations and feature communication capabilities facilitated through a next-generation network infrastructure. These AAPUs would be compatible with a variety of agricultural implements to provide operational versatility and value to a wide range of farming operations. Such FC & EV powered AAPUs could reduce lifecycle greenhouse gas (GHG) emissions from agricultural operations by an average of 70% relative to emissions from diesel power units. This article further demonstrates that these autonomous technologies could be leveraged at a cost comparable to current diesel operations in agriculture.
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联网和自主的电力和燃料电池驱动的农业发电机组:可行性研究。
农业劳动力短缺,加上全球粮食产量的必要增长和日益严格的可持续农业立法,为农业更多地依赖电力和自主技术创造了一个“完美风暴”机会。燃料电池(FC)、电动汽车(EV)以及联网和自动驾驶汽车(CAV)技术正在成功适应多种道路和越野汽车应用的需求。在这篇文章中,我们重点讨论了将FC、EV和CAV技术集成到适合自主完成农业田间作业的动力装置中的可行性。这种小型自主农业电力装置(AAPU)将用于集群/舰队运营,并通过下一代网络基础设施提供通信能力。这些AAPU将与各种农具兼容,为广泛的农业作业提供操作的多功能性和价值。相对于柴油发电机组的排放量,这种FC和EV驱动的AAPU可以将农业运营的生命周期温室气体(GHG)排放量平均减少70%。这篇文章进一步证明,这些自主技术可以以与当前农业柴油操作相当的成本加以利用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
0.30
自引率
0.00%
发文量
12
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