保持声学数据的质量:扩展采样量的有源和无源设备的校准方法

K. Foote
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引用次数: 0

摘要

为了满足水下采样和观测的特殊要求,声学技术是一项不断发展的关键技术。这项技术既可以主动地用于使鱼类、浮游动物、其他海洋生物和环境产生声波,也可以被动地用于收听和记录海洋生物和其他来源产生的声音,例如船舶和环境噪声。校准后,声学设备提供了量化的潜力。给出了标定的基本情况,并对有源和无源器件标定的主要方法进行了综述。这些包括用于校准有源设备的标准目标方法,例如声纳,以及用于校准无源设备的三换能器球波互易方法,例如电声换能器和水听器。在了解传感器近场空间结构方面的最新进展可以安全地扩展此类校准的范围,同时也扩展了测量本身的范围。这种扩展可以通过声学采样体积来量化。还参考了IEEE海洋工程学会(OES)标准倡议,其网站为http://www.oceanicengineering.org/page.cfm/cat/105/OES-Standards-Initiative/,该倡议提供了一个论坛,用于传播有关海洋工程中重要的标准、协议、质量保证程序和最佳实践的信息。这包括关于声学仪器当前校准方法的信息。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Maintaining quality of acoustic data: Calibration methods for active and passive devices, with extended sampling volume
A key technology that continues to evolve to meet special requirements of underwater sampling and observation is that of acoustics. This technology is used both actively to ensonify fish, zooplankton, other marine organisms, and the environment, and passively to listen to and record sounds produced by marine organisms and other sources, e.g., shipping and environmental noise. When calibrated, acoustic devices offer the potential for quantification. The essential case for calibration is made, and principal methods for the calibration of active and passive devices are reviewed. These include the standard-target method for the calibration of active devices, e.g., sonars, and the three-transducer spherical-wave reciprocity method for the calibration of passive devices, e.g., electroacoustic transducers and hydrophones. Recent advances in understanding the spatial structure of the transducer nearfield may safely extend the range at which such calibrations can be performed, as well as extending the range of measurements themselves. This extension can be quantified through the acoustic sampling volume. Reference is also made to the IEEE Oceanic Engineering Society (OES) Standards Initiative, with website at http://www.oceanicengineering.org/page.cfm/cat/105/OES-Standards-Initiative/, which is providing a forum for dissemination of information on standards, protocols, quality assurance procedures, and best practices that are important in ocean engineering. This includes information on current calibration methods for acoustic instruments.
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