通过电磁制导的自主水下航行器寻的/对接

M. Feezor, P. Blankinship, J. Bellingham, F. Y. Sorrell
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引用次数: 195

摘要

自主水下航行器(AUV)成功运行的核心是返回码头的能力,这样AUV的持续回收是可行的。已经提出和测试了许多寻的技术,其中声寻的技术通常是最普遍的。准确的声导系统需要具有高更新率的系统,如果需要AUV的方向,以及到码头的方位和距离,则需要广泛的信号调节。在对接的最后阶段,飞行器的方向变得越来越重要,因为在对接附近大幅度改变方向是不切实际的,而且通常是不可能的。电磁(EM)寻的系统是一种备选方案,可以在寻的过程中为船坞提供AUV位置和方向的精确测量。与高频声学系统相比,该系统在确定AUV方向方面具有固有的优势。给出了电磁制导系统的设计和测试,特别注意它可以适应各种auv。电磁导引系统由一个提供导引信号的电磁线圈和一组安装在水下航行器上的感应线圈组成。目前的测试使用麻省理工学院海洋拨款计划奥德赛AUV作为测试工具。该设计成功地进行了多次寻的、对接和锁定试验。寻的数据包括航位推算计算和寻的声迹跟踪,以及寻的视频记录。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Autonomous underwater vehicle homing/docking via electromagnetic guidance
Central to the successful operation of an autonomous undersea vehicle (AUV) is the capability to return to a dock, such that consistent recovery of the AUV is practical. A number of homing technologies have been proposed and tested, with acoustic homing generally the most prevalent. Accurate acoustic homing requires systems with high update rates, and extensive signal conditioning if AUV orientation is required, as well as, bearing and distance to the dock. Vehicle orientation becomes increasingly important in the final stages of the docking, as large changes in orientation near the dock are impractical and often not possible. An electromagnetic (EM) homing system is one alternative that can provide accurate measurement of the AUV position and orientation to the dock during homing. This system offers inherent advantages in defining the AUV orientation, when compared to high frequency acoustic systems. The design and testing of an EM homing system is given, with particular attention to one can be adapted to a wide class of AUVs. The EM homing system consists of a dock with EM coils that provide the homing signal, and set of sensing coils that are mounted in the AUV. The present tests used the MIT Sea Grant Program Odyssey AUV as the test vehicle. A number of homing, docking and latching trials were successfully performed with the design. Homing data include dead reckoning computation and acoustic tracking of the homing track, and video documentation of homing into the dock.
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