一种集成的水下光学/声学通信系统

N. Farr, A. Bowen, J. Ware, C. Pontbriand, M. Tivey
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引用次数: 267

摘要

与空气中的通信相比,水下通信受到严重限制,因为除了可见光波段外,水基本上对电磁辐射是不透明的。即使在可见光波段,在最清澈的水域,光线也只能穿透几百米,而在因悬浮沉积物或高浓度海洋生物而浑浊的水域,光线穿透的距离就更小了。因此,声学技术已经发展为水下通信系统,现在是一种相对成熟和强大的技术。声学系统能够进行长距离通信,但提供有限的数据速率和显著的延迟(由于水中声音的速度)。我们正在开发一种光通信系统,与现有的声学系统相补充和集成,从而实现水下通信能力,在光学范围内提供高数据速率和低延迟,在光学范围外提供长距离和坚固的声学。在广泛的应用中,这种能力的组合将使从支持船或平台上操作自供电的ROV成为可能,而无需与ROV进行物理连接。这种能力将有助于简化操作,并可能通过使用能力较差的水面舰艇来降低成本。新的部署策略可能会在所有海底活动领域提供改变游戏规则的机会。例如,快速事件响应将得到加强,新兴海洋观测基础设施的维修和维护将变得更具成本效益。这种通过水的通信同样可以交换来自固定传感器的大数据文件,使用auv(或rov)作为数据骡子,从非系泊车辆传送实时视频,用于检查、识别和其他相关操作。不需要昂贵且难以安装的海底电缆,密集的水下传感器阵列的互连也是可能的。一种专门用于海底节点的无人电池驱动车辆,可以通过声波和光通信的组合进行无线操作,将成为科学探索和商业应用的重要资产。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An integrated, underwater optical /acoustic communications system
Communication underwater is severely limited when compared to communications in air because water is essentially opaque to electromagnetic radiation except in the visible band. Even in the visible band, light penetrates only a few hundred meters in the clearest waters and much less in waters made turbid by suspended sediment or high concentrations of marine life. Consequently, acoustic techniques have been developed for underwater communication systems and now represent a relatively mature and robust technology. Acoustic systems are capable of long range communication, but offer limited data rates and significant latency (due to the speed of sound in water). We are developing an optical communication system that complements and integrates with existing acoustic systems resulting in an underwater communications capability offering high data rates and low latency when within optical range combined with long range and robustness of acoustics when outside of optical range. Amongst a wide array of applications, this combination of capabilities will make it possible to operate self-powered ROVs from support vessels or platforms without requiring a physical connection to the ROV. Such a capability will help simplify operations and potentially reduce costs through the use of less capable surface vessels. New deployment strategies may offer game-changing opportunities within all areas of undersea activities. For example, rapid event response will be enhanced and repair and maintenance of the emerging ocean observatory infrastructure will become more cost effective. Such through-water communications will likewise enable exchange of large data files from fixed sensors using AUVs (or ROVs) as data mules, shuttling real-time video from untethered vehicles for inspection, identification, and other related operations. Interconnectivity for dense arrays of underwater sensors without the need for expensive and difficult to install undersea cables is also possible. An unmanned battery operated vehicle, dedicated to a subsea node, that can be wirelessly operated though a combination of acoustic and optical communications, will be an important asset for both scientific exploration and commercial applications.
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