A combination air deceleration and mooring module for A-sized buoys

F. Driscoll, W. Venezia, D. Curic, T. Pantelakis
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Abstract

The A-sized standard is adopted for many buoys used in ocean monitoring that are deployed from aircraft, helicopters, ships and submarines using pressure and gravity launch tubes, as well as charge-activated devices (CAD). Unfortunately, most existing A-sized systems are drifting buoys and acquiring relatively long term measurements from a fixed location in littoral waters is difficult because currents tend to move these drifting buoys on shore or out of the region of active interest. A novel air brake and mooring module is presented in this paper that provides a reliable air deployment and autonomous mooring capability for A-sized systems. The module consists of a combined air brake/anchor and an autonomous scope adjusting mooring line spool. In air, the combined air brake/anchor is rigidly attached to the sensor package to eliminate parachute entanglement. In water, the air brake/anchor is released and moors the system in bottom types ranging from mud and sand to broken rock. The mooring module supports different mooring lines, including embedded conductors, and self-locks the mooring line at preprogrammed scopes in depths ranging between 20 and 200 m. The electronic components are low power and potted to eliminate leaks. A structural finite element model is used to design the high strength lightweight anchor and the size of the mooring module and buoy are minimized using a finite element numerical simulation. The final package is small, consuming 1/3 of the available space, and its volume is equivalent to the combined space utilized by existing parachutes and sensor suspension and communication lines.
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一种用于A型浮标的组合空气减速和系泊模块
许多用于海洋监测的浮标都采用a级标准,这些浮标由飞机、直升机、船舶和潜艇使用压力和重力发射管以及电荷激活装置(CAD)部署。不幸的是,大多数现有的a级系统都是漂流浮标,从沿海水域的固定位置获得相对长期的测量是困难的,因为水流倾向于将这些漂流浮标移动到岸上或移动到活跃兴趣区域之外。本文提出了一种新型的空气制动和系泊模块,为A级系统提供可靠的空气展开和自主系泊能力。该模块由一个组合式空气制动/锚和一个自主调节范围的系泊线轴组成。在空气中,联合空气制动器/锚固定在传感器包上,以消除降落伞缠结。在水中,空气制动器/锚被释放,将系统停泊在泥浆、沙子和破碎岩石的底部。系泊模块支持不同的系泊线,包括嵌入式导体,并在深度为20至200米的预编程范围内自动锁定系泊线。电子元件是低功率和密封,以消除泄漏。采用结构有限元模型对高强度轻量化锚进行设计,并采用有限元数值模拟将系泊模块和浮筒的尺寸最小化。最终的封装很小,占用了可用空间的1/3,其体积相当于现有降落伞、传感器悬挂和通信线路所利用的空间总和。
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