俄罗斯北极大陆架水域的环境安全和通过减少噪音污染来改善海洋生态系统的安全

V. Kalyu, D. A. Smirnov, V. Tarovik, M. Sergeev, V. Petrova
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引用次数: 0

摘要

研究对象和目的。确保俄罗斯大陆架水域的环境安全需要不断发展与监测、定量评估和减少污染源有害影响有关的方法和技术。在北海航线(NSR)水域的工业和运输发展过程中,观察到水下噪音的急剧增加。要充分了解水下噪声源对海洋生态系统代表的影响,就需要采用越来越现代和准确的测量技术。本文介绍了测量运载船舶自身噪声和选定海洋设备对象水下噪声的方法草案,这些方法是为了确定噪声污染对所考虑水域生态状况的影响程度而制定的。材料和方法。水声信号包括测量船的自噪声、海洋工业设备(OMIE)物体的噪声和正在进行声学测试的水域的噪声。这些声学信号由组合声压和声压梯度换能器以及位于接收系统中的全向水听器感知,并且被转换成经由主电缆传输到测量船的船上支柱的电信号。信号通过相同的电缆发送到水声制导信标,以控制该信标的操作。SIGAK VP操作手册(MGFK.411711.327 RE)中规定了信息处理程序。初级处理的主要目的是获得被测试的运载船或OMIE产生的水下噪声的1/3倍频程谱和水平,以及进行这些测试的水域的噪声。根据公认的分类,根据该技术使用水声复合体测量声压级的方法是指具有单一观测的间接方法。主要结果。在工作过程中,开发了测量船自身噪声和选定海洋工业物体水下噪声的初步测量方法。为了测量5 Hz至10000 Hz范围内1/3倍频程频带的水下噪声水平,在草案方法的框架内,计划使用带有GIK-VP矢量接收器的固定测量水声复合体。信号处理算法基于声功率通量密度分量的空间频率滤波,这使得可以保护测量信息不受传播方向与到测量对象的方向不一致的干扰信号的影响。结论以实施初步方法的形式获得的结果对于制定监管文件以监管俄罗斯管辖水域的技术性水下噪音、降低噪音污染强度和对海洋生态系统的有害影响具有重要意义。本文针对海洋声学技术设计、海上工业设施和各类船舶的建造和运营、海洋设备符合国际水下噪声标准的声学监测等阶段提供支持。
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The environmental safety of the Russian arctic shelf waters and improving the safety of marine ecosystems by reducing the noise pollution
Object and purpose of research. Ensuring the environmental safety of the Russian shelf waters requires constant development of methods and technologies related to monitoring, quantitative assessment and reduction of the harmful effects of pollution sources. During the industrial and transport development of the water area of the Northern Sea Route (NSR), an intensive increase of underwater noise is observed. Obtaining an adequate picture of the impact of underwater noise sources on representatives of the marine ecosystem creates a need to involve more and more modern and accurate measurement techniques. The article describes the draft methods for measuring the self-noise of carrier vessel and underwater noise of a selected marine equipment object, which were developed in order to identify the degree of impact of noise pollution over to the ecological situation in the considered water area. Materials and methods. An hydro acoustic signals contains the self-noise of measuring vessel, the noise of an object of marine industrial equipment (OMIE) and the noise of the water area where acoustic tests are going on. This acoustic signals are perceived by combined sound pressure and sound pressure gradient transducers, as well as by an omnidirectional hydrophone, located in the receiving system , and are converted into electrical signals transmitted via the main cable to the onboard post of the measuring vessel. Signals are sent to the hydro acoustic guidance beacon via the same cable to control the operation of this beacon. The information processing procedure is set out in the SIGAK VP Operation Manual (MGFK.411711.327 RE). The main purpose of the primary processing is to obtain 1/3-octave spectra and levels of underwater noise generated by the tested carrier vessel or OMIE, as well as the noise of the water area where these tests are carried out. In accordance with the accepted classification, the method of measuring sound pressure levels using a hydro acoustic complex according to this technique refers to indirect methods with single observations. Main results. In the course of the work, preliminary methods for measuring the self-noise of measuring vessel and underwater noise of a selected marine industrial object were developed. To measure the levels of underwater noise in 1/3-octave frequency bands in the range from 5 Hz to 10,000 Hz, within the framework of the draft methods, it is planned to use a stationary measuring hydro acoustic complex with a vector receiver from the GIK-VP. The signal processing algorithms are based on the spatial-frequency filtering of the acoustic power flux density components, which makes it possible to protect the measurement information from interference signals whose propagation direction does not coincide with the direction to the measured object. Conclusion. The results obtained in the form of implemented preliminary methods are important for the creation of regulatory documentation for the regulation of technogenic underwater noise in the waters of the Russian jurisdiction, reducing the intensity of noise pollution and the detrimental impact over to marine ecosystems. The article targeting the support at the stages of acoustical marine technical design, construction and operation of offshore industrial facilities and ships of various types, acoustic monitoring of the compliance of marine equipment with international standards for underwater noise.
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