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重大工程地震紧急处置技术研发与示范应用

温瑞智 马强 张格明 潘蓉 孙明烨 许令顺

温瑞智, 马强, 张格明, 潘蓉, 孙明烨, 许令顺. 重大工程地震紧急处置技术研发与示范应用[J]. 地震科学进展, 2020, (2): 1-15. doi: 10.3969/j.issn.2096-7780.2020.02.001
引用本文: 温瑞智, 马强, 张格明, 潘蓉, 孙明烨, 许令顺. 重大工程地震紧急处置技术研发与示范应用[J]. 地震科学进展, 2020, (2): 1-15. doi: 10.3969/j.issn.2096-7780.2020.02.001
Ruizhi Wen, Qiang Ma, Geming Zhang, Rong Pan, Mingye Sun, Lingshun Xu. The core technology of earthquake emergency management and practice for major engineering[J]. Progress in Earthquake Sciences, 2020, (2): 1-15. doi: 10.3969/j.issn.2096-7780.2020.02.001
Citation: Ruizhi Wen, Qiang Ma, Geming Zhang, Rong Pan, Mingye Sun, Lingshun Xu. The core technology of earthquake emergency management and practice for major engineering[J]. Progress in Earthquake Sciences, 2020, (2): 1-15. doi: 10.3969/j.issn.2096-7780.2020.02.001

重大工程地震紧急处置技术研发与示范应用

doi: 10.3969/j.issn.2096-7780.2020.02.001
基金项目: 国家重点研发计划项目(2017YFC1500802)资助。
详细信息
    通讯作者:

    温瑞智(1968-),男,研究员,主要从事工程地震研究。E-mail:ruizhi@iem.ac.cn

  • 中图分类号: P315.9

The core technology of earthquake emergency management and practice for major engineering

  • 摘要: 我国经济快速发展和城市化进程加快,核电站、大型水坝等重大基础设施不断涌现,高速公路、轨道交通、长输管线、城市管网等生命线工程日趋密集、复杂,一旦遭遇强烈地震,可能产生极为严重的次生灾害和难以估量的间接经济损失。本文介绍了国家重点研发项目“重大工程地震紧急处置技术研发与示范应用”的主要进展。目前已提出面向点、线状重大工程的地震动输入方法,以及基于复杂地形数值模拟的面状地震动输入。给出了新一代基于性态的工程结构地震易损性分析方法。开展了城市轨道交通高架桥车—轨—桥耦合地震反应,小区燃气调压站房、管线、阀门和土相耦合的地震反应分析及核电站结构与设备地震耦合作用研究。建立了重大工程紧急处置专用的震级、震中距、紧急处置范围估算公式,研究了基于P波段双参数阈值的现地地震警报预测方法,建立了地震动参数的风险概率模型。对重大工程地震紧急处置信息发布技术系统进行了顶层设计,对地震预警信息发布终端的协议进行了解析,搭建了地震预警信息接收技术系统。研制了行业定制化的地震紧急处置接收与报警装置、电梯开关装置、燃气切断阀门。地震破坏场景虚拟演示内融合地震信息、风险评估信息、地理信息系统,有力地推进城市重大工程地震紧急处置平台的建设。研发的城市轨道交通地震预警紧急处置系统开始在国家铁道试验中心城轨试验线开展示范;多参数核电站地震仪表系统开始在红沿河核电站开展示范;城镇燃气地震信息监测控制系统在北京平谷区峪口镇开展示范。

     

  • 图  1  科学问题和关键技术

    Figure  1.  Scientific & engineering challenge

    图  2  点状重大工程地震的条件均值谱输入方法

    Figure  2.  Conditional mean spectrum input for point site-specific infrastructure

    图  3  复杂地形地质构造环境的地震动场数值模拟

    Figure  3.  Complex topographical /geological strong motion simulation

    图  4  概率危险性需求曲线计算结果

    Figure  4.  Comprising with EDHC method

    图  5  重大工程复杂系统地震耦合作用分析(核电,城轨,燃气)

    Figure  5.  Coupling effects of complex infrastructure(nuclear power,urban rail,gas)

    图  6  地震紧急处置参数确定

    Figure  6.  Parameters of earthquake emergency measurement

    图  7  重大工程紧急处置信息的应用策略框图

    Figure  7.  Application strategy for earthquake emergency measurement

    图  8  重大工程地震紧急处置信息发布技术系统研发框图

    Figure  8.  Publishing the information of earthquake emergency measurement

    图  9  地震紧急处置信息接受装置

    Figure  9.  Receiving equipment of earthquake emergency measurement

    图  10  KIS地震仪表系统软件主界面

    Figure  10.  Interface of KIS earthquake instrument system

    图  11  城市轨道交通地震紧急处置系统总体架构图

    Figure  11.  Outline for earthquake emergency measurement of urban rail transit

    图  12  城市轨道交通地震紧急处置中心监测业务终端界面

    Figure  12.  Interace of earthquake emergency measurement center for urban rail transit

    图  13  城镇燃气紧急处置地震信息软硬件系统设计

    Figure  13.  Hardware & software design for earthquake emergency measurement

    图  14  用户侧智能化地震紧急处置系统设计

    Figure  14.  Design for user-side AI earthquake emergency measurement

    图  15  全机械式地震燃气切断实验

    Figure  15.  Experiment for mechanical cut-off valve of gas line

    图  16  重大工程地震灾害紧急处置平台整体架构

    Figure  16.  Platform of earthquake emergency measurement for multi-infrastructure

    图  17  地震灾害场景推演操作及具体场景示意图

    Figure  17.  VR demo for earthquake disaster scene

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出版历程
  • 收稿日期:  2020-02-03
  • 修回日期:  2020-02-12
  • 刊出日期:  2020-02-01

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