Design Considerations for Unmanned Surface Vessels in Naval Service

IF 0.5 4区 工程技术 Q4 ENGINEERING, MARINE Journal of Ship Production and Design Pub Date : 2023-07-27 DOI:10.5957/jspd.10220025
Jason D. Strickland
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Abstract

Within the evolving maritime industry, we are faced with this fundamental question: “What modifications of design practices are required to support the development of Unmanned Surface Vessels?” The trivial answer is to remove the people, but mariners and personnel afloat have been a stalwart for the operations of prior maritime vessels. So, we now begin to assess the impact of their removal/reassignment as an industry. Not only a technical challenge exists, the regulatory and statutory challenge is also worthy of noting. It is the goal of this paper to look at the potential implications and modifications required to effectively design unmanned surface vessels. Four major subelements will be required to field a successful system. These subelements are Design, Classification, Testing, and Certification. Classification, Testing, and Certification will be the focus of a future discourse. The Design subelement will be assessed across a set of categories that aligns with the U.S. Navy Ship Work Breakdown Structure. The required assessments need to be given a time horizon for contextual purposes. In support of this assertion, the targeted objective is a vessel certified for unmanned, unescorted, over the horizon, blue water operations by 2025. Humans have been designing and deploying ocean-going vessels for thousands of years, potentially since the dawn of human history based on findings on Flores Island, Indonesia; San Miguel Island, CA; and the Pesse Canoe (Rose 1998; Pringle 2008; Drents Museum 2016). During this time, the maritime industry has weathered multiple paradigm shifts in major subsystems, such as the transition from sails to steam to internal combustion engines to electric drives, none of these are as potentially disruptive as the current shift underway to unmanned vessel operations. This transition is across the maritime domain, it applies to commercial and naval applications. “The Navy wants to acquire these large unmanned vehicles (UVs) as part of an effort to shift the Navy to a more distributed fleet architecture . . .” (O’Rourke 2022). These new assets will augment and not replace traditional vessels. “We will add to our current fleet a host of manned, unmanned and optionally manned platforms operating under, on, and above the seas” (Gilday 2022).
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海军无人水面舰艇的设计考虑
在不断发展的海运业中,我们面临着这样一个基本问题:“为了支持无人水面船舶的发展,需要对设计实践进行哪些修改?”最简单的答案是把人移走,但水手和海上人员一直是以前海上船只运作的中坚力量。因此,我们现在开始评估他们的移除/重新分配作为一个行业的影响。不仅存在技术上的挑战,监管和法律上的挑战也值得注意。本文的目标是研究有效设计无人水面舰艇所需的潜在影响和修改。一个成功的系统需要四个主要的子要素。这些子元素是设计、分类、测试和认证。分类、测试和认证将是未来讨论的重点。设计子元素将根据美国海军舰艇工作分解结构的一系列类别进行评估。为了上下文的目的,需要给所需的评估一个时间范围。为了支持这一主张,目标是在2025年之前获得一艘无人驾驶,无人护送,超越地平线,蓝水作战的船只。根据在印度尼西亚弗洛雷斯岛的发现,人类设计和部署远洋船只已有数千年的历史,可能从人类历史的黎明开始;加利福尼亚州圣米格尔岛;和佩斯独木舟(Rose 1998;普林格尔2008;Drents Museum, 2016)。在此期间,海运业经历了主要子系统的多次范式转变,例如从帆到蒸汽到内燃机再到电力驱动的转变,这些都没有目前正在进行的无人船操作的转变具有潜在的破坏性。这种转变跨越了海洋领域,它适用于商业和海军应用。“海军希望获得这些大型无人驾驶车辆(UVs),作为海军向更分布式舰队架构转变的努力的一部分……”(O 'Rourke 2022)。这些新资产将是对传统船舶的补充,而不是取代。“我们将在现有的舰队中增加一系列载人、无人和可选载人平台,在海上、海上和海上运行”(Gilday 2022)。
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来源期刊
CiteScore
1.10
自引率
0.00%
发文量
19
期刊介绍: Original and timely technical papers addressing problems of shipyard techniques and production of merchant and naval ships appear in this quarterly publication. Since its inception, the Journal of Ship Production and Design (formerly the Journal of Ship Production) has been a forum for peer-reviewed, professionally edited papers from academic and industry sources. As such it has influenced the worldwide development of ship production engineering as a fully qualified professional discipline. The expanded scope seeks papers in additional areas, specifically ship design, including design for production, plus other marine technology topics, such as ship operations, shipping economics, and safety. Each issue contains a well-rounded selection of technical papers relevant to marine professionals.
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