Oceanographic DataLink

K.A. Gamache, P.E. Fogel
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引用次数: 21

Abstract

Significant advances have been made in sensors and systems to monitor the ocean environment over the last few years. These sensors and systems are becoming increasingly complex. AOSN (autonomous ocean sampling network) is a good example, with a network of cooperating autonomous underwater vehicles sampling a volume rather than a single plane of the ocean. In addition, these sensors and systems are being placed in increasingly remote regions. Telemetry systems such as INMARSAT, MSAT/AMSC, and GOES are either too costly, provide only limited ocean coverage, or support limited throughput. ARGOS provides the necessary coverage, but it is one-way with very limited throughput. Without significant advances in oceanographic telemetry, it will not be possible to take advantage of the benefits of these new sensors and systems. Help is on the horizon. There is considerable excitement and interest in new and planned satellite systems, especially low Earth orbit (LEO) systems. This paper discusses the disadvantages of these systems for oceanographic applications and describes an alternative based on existing geosynchronous satellites, the Oceanographic DataLink (ODL). ODL is based on existing geosynchronous satellites and is not dependent on the financial success of a complex network of satellites. It provides the lowest cost, lowest risk solution for remote environmental data collection required for the next generation of sensors and systems. This paper describes the system, the underlying technology, and possible applications including moored and drifting buoys and long endurance autonomous underwater vehicle applications it compares this system to current and planned systems and describes its benefits for global environmental data collection.
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海洋数据链接
在过去几年中,监测海洋环境的传感器和系统取得了重大进展。这些传感器和系统正变得越来越复杂。自主海洋采样网络(AOSN)就是一个很好的例子,它是一个协作的自主水下航行器网络,对海洋的一个整体而不是单个平面进行采样。此外,这些传感器和系统正被安置在越来越偏远的地区。诸如INMARSAT、MSAT/AMSC和GOES等遥测系统要么过于昂贵,要么只能提供有限的海洋覆盖,要么只能支持有限的吞吐量。ARGOS提供必要的覆盖,但它是单向的,吞吐量非常有限。没有海洋遥测技术的重大进展,就不可能利用这些新的传感器和系统的好处。救援即将到来。人们对新的和计划中的卫星系统,特别是低地球轨道(LEO)系统,有着相当大的兴奋和兴趣。本文讨论了这些系统在海洋学应用中的缺点,并介绍了一种基于现有地球同步卫星的替代方案——海洋数据链(ODL)。ODL以现有的地球同步卫星为基础,不依赖于复杂卫星网络在财政上的成功。它为下一代传感器和系统所需的远程环境数据收集提供了成本最低、风险最低的解决方案。本文介绍了该系统、基础技术和可能的应用,包括系泊和漂流浮标以及长续航自主水下航行器应用,并将该系统与当前和计划中的系统进行了比较,并描述了其在全球环境数据收集方面的优势。
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