Effects of Body Geometry and Propulsion Type on Unmanned Underwater Vehicle Interactions with Marine Vegetation

G. V. Anuat, J. Klamo, A. Pollman
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引用次数: 2

Abstract

Interactions with marine vegetation can disrupt unmanned underwater vehicle (UUV) mission success. Very little information is publicly available about the mechanisms causing these interactions or the consequences of them. This article compares the interactions between three different style UUVs and two different types of marine vegetation. Similar equipment and procedures were used to allow for the direct comparison between a GhostSwimmer, a REMUS-100, and a BlueROV2. Experimental test runs were conducted at different vegetation densities using either synthetic eelgrass or giant kelp. The resulting interactions depended on the vegetation type, vegetation density, propulsion mechanism of the vehicle, and vehicle geometry. Synthetic giant kelp caused a multitude of interactions including entanglement with the vehicle's body or propeller and blockage of the vehicle depending on the geometry and propulsion mechanism of the UUV. Eelgrass caused propeller entanglement, temporary speed reduction, and even blockage depending on the UUV. The use of an oscillating tail for propulsion coupled with a completely streamlined body appears to successfully mitigate adverse marine vegetation interactions.
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船体几何形状和推进方式对无人潜航器与海洋植被相互作用的影响
与海洋植被的相互作用会影响无人水下航行器(UUV)任务的成功。关于引起这些相互作用的机制或其后果的公开信息很少。本文比较了三种不同类型的uuv与两种不同类型的海洋植被之间的相互作用。使用类似的设备和程序,可以直接比较GhostSwimmer、REMUS-100和BlueROV2。实验测试在不同的植被密度下进行,使用合成大叶藻或巨藻。产生的相互作用取决于植被类型、植被密度、车辆推进机制和车辆几何形状。根据无人潜航器的几何形状和推进机制,合成巨藻会与飞行器的机身或螺旋桨产生纠缠,并导致飞行器堵塞。大叶藻造成螺旋桨纠缠,暂时降低速度,甚至堵塞取决于UUV。利用摆动尾翼与完全流线型的机体相结合来推进,似乎成功地减轻了不利的海洋植被相互作用。
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