将自主水下船只、水面船只和飞机作为海洋观测研究的持续监测组成部分

P. Mcgillivary, K. Rajan, J. D. de Sousa, F. Leroy
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引用次数: 27

摘要

建立海洋观测系统(OOS)的全球倡议正在进行中,可以为社会提供有关海洋状况的更好信息。这些观测站包括系泊、漂流、浮子和浮力滑翔机。尽管滑翔机具有较长的操作续航时间,但它们对电池的依赖限制了传感器的有效载荷,因此一些OOS还包括带有主动推进的自主水下航行器(auv)。在一些观测站,auv可以在通过电缆连接到岸边的水下坞站给电池充电。然而,auv也可以从自主水面舰艇(asv)充电,如WaveGlider,其推进由波浪作用提供,有效载荷由太阳能电池板提供。此外,作为OOS的组成部分,asv还可以收集数据,并作为来自底系泊、滑翔机和auv的数据的通信节点。无人驾驶飞行器系统(UAS)可以执行相同的任务。讨论了这些异构系统的联网问题,以及自适应海洋采样的工具和技术。概述了为OOS建立便携式移动观测站的愿景,该观测站可以随时随地部署,依赖于人在环和完全自主计算技术的混合。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Integrating autonomous underwater vessels, surface vessels and aircraft as persistent surveillance components of ocean observing studies
Global initiatives are underway to establish Ocean Observing Systems (OOS) that can provide society better information on ocean conditions. These observatories include moorings, drifters, floats, and buoyancy gliders. Although gliders have long operational endurance, their reliance on batteries limits sensors payloads, thus some OOS also include autonomous underwater vehicles (AUVs) with active propulsion. In some observatories AUVs can recharge their batteries at underwater docking stations connected to shore by cables. However AUVs can also be recharged from autonomous surface vessels (ASVs) such as the WaveGlider, whose propulsion is provided by wave action, and payload power supplied by solar panels. In addition to this function, as components of OOS, ASVs can collect data and act as communication nodes for data from bottom moorings, gliders and AUVs. Unmanned air vehicle systems (UAS) may perform the same role. The problem of networking these heterogeneous systems is discussed along with tools and technologies for adaptive ocean sampling. A vision is outlined to build a portable mobile observatory for OOS which can be deployed anywhere, anytime, that relies on a mix of human-in-the-loop and fully autonomous computational technology.
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