首页> 外国专利> METHOD FOR FORMING AND APPLICATION OF GLOBAL RADIOHYDROACOUSTIC SYSTEM OF MONITORING ATMOSPHERIC, OCEANIC AND CRUSTAL FIELDS IN MARINE ENVIRONMENT AND RECOGNITION OF SOURCES THEREOF

METHOD FOR FORMING AND APPLICATION OF GLOBAL RADIOHYDROACOUSTIC SYSTEM OF MONITORING ATMOSPHERIC, OCEANIC AND CRUSTAL FIELDS IN MARINE ENVIRONMENT AND RECOGNITION OF SOURCES THEREOF

机译:海洋环境中大气,海洋和地壳监测的全球放射性水声系统的形成和应用方法及其资源识别

摘要

FIELD: physics.SUBSTANCE: invention relates to hydrophysics, geophysics and radiophysics. It is based on the integration of the fundamental development of the GLONASS navigation system, the Gonets communication system, as well as scientific and technical developments of the radio-hydroacoustic system for monitoring the atmospheric, oceanic and crustal fields in the marine environment as the Unified Information Space of the Earth. Method for the formation and application of a global radio-hydroacoustic system for monitoring the atmospheric, oceanic and crustal fields in the marine environment and the recognition of their sources includes placing radiating and receiving transducers in the medium, sounding medium by low-frequency acoustic signals of a stabilized frequency and the forming in it working zones of nonlinear interaction and parametric transformation of luminous and measurable information waves of different physical nature,receiving nonlinearly transformed luminescent signals, amplifying them in the parametric transformation band, transferring to the high-frequency region, narrow-band spectral analysis, separating from the spectra of the upper and/or lower side bands and recovering on their basis, taking into account the parametric and frequency-time transformation, the initial characteristics of the information waves. Luminous parametric antenna is formed as a spatial multipath, for which it uses non-directional radiating transducers, that are located in the center of the controlled water area and are installed in depth both on the axis of the underwater sound channel, and above and below it. Identical receiving blocks are arranged in depth similar to the radiating converters and are located relative to the radiating center along a circle or perimeter of the controlled water area after 45°. Each of the receiving blocks is formed from three non-directional converters (hydrophones), that are located in the vertical plane of the controlled medium along triangles, preferably isosceles, their bases lie on the same vertical line, and their vertices face the radiating transducers. Luminous signals of each radiating transducer are received by each single receiving transducer (hydrophone) of each of the three receiver units, as a result of which the luminous parametric antenna is a complex of multipath parametric antennas located in the vertical plane, oriented radially from the center to the periphery and equally remote from the antennas adjacent to them. Placed in the vertical plane, the receiving blocks are a discrete linear antenna in which the distances between the transducers of the receiving units in the vertical plane are set in accordance with the correlation properties of the luminous acoustic field. Principal difference between the claimed method consists in the fact that the main (scalable) luminal parametric system for monitoring the atmospheric information fields, ocean and the crust in the marine environment and the recognition of their sources form within the water areas of the seas of the Far Eastern region or within the aggregate space of other maritime economic zones of the Russian Federation. In the structure of the global radio-acoustic system introduce additional subsystems that form and establish on geographically remote water areas relative to the main (scalable) system. Main system and additional subsystems are provided with various radiating and receiving paths with their underwater radiators and receiving blocks. Signals from underwater converters by means of cables are transmitted to reception paths, where they are processed by neural network analysis lines, introduced into the composition of all receiving paths, and perform automatic recognition of the belonging of the spectral region to the object of classification. Results of the analytical processing through the communication channels through the switching block of the receiving paths are transferred to the Joint Information Analysis Center (JIAC) of the global radio-acoustic system where they perform the final analysis, recognition and classification of mathematically processed images of spectrograms of objects, and also produce commands for managing the operation of the main (scalable) system and additional subsystems in accordance with changes in tasks and conditions for conducting monitoring of the water areas. Moreover, the JIAC is connected to external (not system) blocks providing data exchange and communication between the JIAC and/or GLONASS navigation systems and Gonets connection. In addition, the luminescent parametric antennas of the additional subsystems form as complexes of vertical multipath parametric antennas, located on a circle or perimeter of the monitored water areas through 45° and oriented from the center to the periphery, while the additional subsystems are removed from the neighboring subsystems at a distance that provides monitoring of the water areas. In addition, the receiving blocks of additiona
机译:技术领域本发明涉及水物理学,地球物理学和放射物理学。它以GLONASS导航系统,Gonets通信系统的基本发展以及无线电水声系统的科学技术发展相结合为基础,该系统以统一的方式监测海洋环境中的大气,海洋和地壳领域地球的信息空间。形成和应用全球无线电-水声系统以监测海洋环境中的大气,海洋和地壳场并对其源进行识别的方法,包括将辐射和接收换能器置于低频声音信号中的探测介质中稳定的频率以及在其工作区域中形成的非线性相互作用和不同物理性质的发光和可测量信息波的参数变换的非线性相互作用,接收非线性变换的发光信号,在参数变换带中对其进行放大,并转移到高频区域,窄带频谱分析,与上边带和/或下边带的频谱分离,并在其基础上进行恢复,同时考虑了参数和频率-时间变换以及信息波的初始特征。发光参量天线形成为空间多径,为此它使用非定向辐射换能器,这些换能器位于受控水域的中心,并且在水下声波通道的轴上以及上下均安装有深度它。相同的接收块在深度上类似于辐射转换器,并在45°之后沿受控水域的圆或周长相对于辐射中心定位。每个接收块均由三个非定向转换器(水听器)形成,它们沿着三角形(最好是等腰三角形)位于受控介质的垂直平面上,它们的基点位于同一垂直线上,并且它们的顶点面向辐射换能器。每个辐射换能器的发光信号被三个接收器单元中的每个接收器的每个单个接收换能器(水听器)接收,其结果是,发光参量天线是位于垂直平面内的多径参量天线的复数,从天线径向地定向。中心位于外围,并且与附近的天线等距。接收块放置在垂直平面中,是离散的线性天线,其中,根据发光声场的相关特性来设置垂直平面中接收单元的换能器之间的距离。所要求保护的方法之间的主要区别在于以下事实:用于监视大气信息场,海洋和海洋环境中的地壳的主要(可缩放)管腔参数系统,以及在海洋水域内识别其来源的方法。远东地区或俄罗斯联邦其他海洋经济区的总空间内。在全球无线电声系统的结构中,引入了额外的子系统,这些子系统形成并建立在相对于主要(可扩展)系统而言地理上偏远的水域上。主系统和附加子系统及其水下辐射器和接收块具有各种辐射和接收路径。水下转换器通过电缆将信号传输到接收路径,在此通过神经网络分析线对其进行处理,并引入所有接收路径的组成中,并自动识别光谱区域属于分类对象。通过通信路径通过接收路径的交换块进行的分析处理结果将传输到全球无线电声系统的联合信息分析中心(JIAC),在此它们对经过数学处理的图像进行最终分析,识别和分类对象的频谱图,并根据任务和条件的变化产生命令来管理主(可伸缩)系统和其他子系统的运行,以进行水域监控。此外,JIAC连接到外部(非系统)模块,从而提供JIAC和/或GLONASS导航系统与Gonets连接之间的数据交换和通信。此外,附加子系统的发光参量天线形成垂直多径参量天线的复合体,它们位于受监测水域的圆或周长上成45°并从中心到外围定向,而附加子系统则从相邻子系统之间的距离可以监控水域。另外,附加的接收块

著录项

  • 公开/公告号RU2017130991A3

    专利类型

  • 公开/公告日2019-03-01

    原文格式PDF

  • 申请/专利权人

    申请/专利号RU20170130991

  • 发明设计人

    申请日0000-00-00

  • 分类号G01H3;

  • 国家 RU

  • 入库时间 2022-08-21 11:47:01

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