北极军事环境合作俄罗斯设施的辐射控制。毕加索系统的应用

J. Sanders, J. Pomerville, P. Moskowitz
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摘要

北极军事环境合作(AMEC)是俄罗斯联邦、挪威、美国和英国军事机构之间的一项合作努力,旨在减少北极地区军事设施和活动对环境的潜在威胁,并加强三国的环境安全。该项目的目标是提高俄罗斯海军对拆除核潜艇的设施以及处理和处置乏核燃料和放射性废物副产品的场所进行有效和安全的放射性生态监测的能力。需要进行放射性生态监测,以保护在核潜艇拆解场址从事工作的工人、周围社区的当地公众和环境。放射生态监测是通过安装一个中央放射监测系统,即挪威哈尔登能源技术研究所开发的毕加索环境监测系统来完成的。俄罗斯核安全研究所对该系统进行了修改,以便在俄罗斯联邦海军基地使用,并为其预期应用开发了一个工作模型。工作模型包括俄罗斯制造的陆地和水下伽马探测器、智能控制器、用于场外数据传输的无线电调制解调器,以及安装在本地计算机、工作站和中央服务器上的毕加索环境监测系统,用于监控特定地点的实时活动。安装毕加索的选定地点是Polyarninsky造船厂10号和RTP Atomflot造船厂。AMEC项目小组在2003年11月访问了Polyarninsky造船厂第10号和RTP Atomflot造船厂,以监测探测和监测系统安装的进展。毕加索系统的实施将与AMEC在这两个地点的其他项目集成。目前正在制订计划,以便在处理SNF的大多数俄罗斯联邦海军场址使用这一系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Arctic military environmental cooperation radiological controls at Russian facilities — Application of the Picasso system
The Arctic Military Environmental Cooperation (AMEC) is a cooperative effort between military establishments of the Russian Federation, Norway, United States, and United Kingdom to reduce potential environmental threats from military installations and activities in the Arctic region and enhancing the environmental security of all three countries. The goal of this project is to enhance the ability of the Russian Navy to perform effectively and safely radioecological monitoring of sites at facilities dismantling nuclear submarines and handling and disposition of spent nuclear fuel (SNF) and the radioactive waste by-products. Radioecological monitoring is needed to protect workers at the sites engaged in work involving the dismantlement of nuclear submarines, the local public of the surrounding communities, and the environment. Radioecological monitoring is being accomplished by the installation of a centralized radiological surveillance system, the Picasso Environmental Monitoring system developed by the Institute for Energy Technology (IFE), Halden, Norway. The Russian Institute for Nuclear Safety modified the system for use at Russian Federation Naval bases and developed a working model for its intended application. The working model includes Russian manufactured terrestrial and underwater gamma detectors, smart controllers, radio-modems for off-site transmission of data coupled with the Picasso Environmental Monitoring system installed into local computers, work stations, and a centralized server to monitor the real-time activity of the particular site. The selected sites for the installation of Picasso are the Polyarninsky Shipyard No. 10 and the RTP Atomflot shipyards. The AMEC project teams visited Polyarninsky Shipyard No. 10 and the RTP Atomflot shipyards in November 2003 to monitor the progress of the installation of the detection and monitoring systems. The implementation of the Picasso system will be integrated with other AMEC projects at both sites. Plans are being developed to implement the use of this system at most Russian Federation Naval sites handling SNF.
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