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    三峡库区巴东地震(Ms5.1)成因机制及次声波信号

    李献瑞 曾佐勋 周强 贺赤诚 刘江平 赵娟 潘黎黎

    李献瑞, 曾佐勋, 周强, 贺赤诚, 刘江平, 赵娟, 潘黎黎, 2014. 三峡库区巴东地震(Ms5.1)成因机制及次声波信号. 地球科学, 39(12): 1793-1806. doi: 10.3799/dqkx.2014.163
    引用本文: 李献瑞, 曾佐勋, 周强, 贺赤诚, 刘江平, 赵娟, 潘黎黎, 2014. 三峡库区巴东地震(Ms5.1)成因机制及次声波信号. 地球科学, 39(12): 1793-1806. doi: 10.3799/dqkx.2014.163
    Li Xianrui, Zeng Zuoxun, Zhou Qiang, He Chicheng, Liu Jiangping, Zhao Juan, Pan Lili, 2014. Seismogenesis of Badong Earthquake (Ms 5.1) in Three Gorges Reservoir Area and Infrasound Anomaly. Earth Science, 39(12): 1793-1806. doi: 10.3799/dqkx.2014.163
    Citation: Li Xianrui, Zeng Zuoxun, Zhou Qiang, He Chicheng, Liu Jiangping, Zhao Juan, Pan Lili, 2014. Seismogenesis of Badong Earthquake (Ms 5.1) in Three Gorges Reservoir Area and Infrasound Anomaly. Earth Science, 39(12): 1793-1806. doi: 10.3799/dqkx.2014.163

    三峡库区巴东地震(Ms5.1)成因机制及次声波信号

    doi: 10.3799/dqkx.2014.163
    基金项目: 

    国家自然科学基金重点项目 41230206

    详细信息
      作者简介:

      李献瑞(1988-), 男, 硕士, 主要从事天然地震研究.E-mail: lixianrui1988@126.com

      通讯作者:

      曾佐勋, E-mail: zuoxun.zeng@126.com

    • 中图分类号: P315.2

    Seismogenesis of Badong Earthquake (Ms 5.1) in Three Gorges Reservoir Area and Infrasound Anomaly

    • 摘要: 2013年12月16日三峡库区巴东发生Ms5.1地震.根据eigen-6c2模型研究了巴东地区的8-638阶卫星重力异常, 结果表明: 该地区场源深度为10 km的地壳为局部重力低异常, 反映了该处物质密度较周围偏低, 形成低密度层.同时, 研究了该地区速度结构剖面, 结果表明: 巴东地区地壳5~9 km及10~15 km深处存在上下两个低速层, 上部低速层与水库渗水有关, 下部低速层与地幔热流体的上涌有关.低密度层和低速层的确定为韧性流变层的存在提供了证据.巴东地震是地壳深部能量的长期集聚与突发释放, 属构造地震.然而, 库水下渗引起的上部低速异常降低了断层活动的阈值, 震前库水载荷的变化对此次巴东地震的发生起到了触发作用.通过对比次声波和地震波, 我们得出次声波仪记录到的异常信号为本地次声波.

       

    • 图  1  区域构造位置(a)及地震地质构造(b)

      F1.齐岳山断层;F2.郁江断层带;F3.黔江断层带;F4.恩施断裂;F5.建始断裂;F6.咸丰断裂;F7.大庸-保靖断裂;F8.高桥断裂;F9.新华-水田坝断层;F10.周家山-牛口断层;F11.城口-房县断裂;F12.远安断裂带;F13.雾渡河断裂;F14.天阳坪断裂;F15.仙女山断裂;F16.松园坪断层;F17.渔洋关断裂;a.改自Yan et al.(2003);b.修编自http://www.eq-igl.ac.cn/admin/upload/files/地震应急20131216J1.pdf

      Fig.  1.  Regional structure location (a) and its seismo-geological map (b)

      图  2  巴东地区8-638阶(10 km)卫星重力异常及历史地震分布

      Fig.  2.  The satellite gravity anomalies of 8-638 order and history earthquakes distribution map in Badong

      图  3  巴东-茅坪-土门一线速度结构剖面(据周强,2011)

      Fig.  3.  Profile of velocity structure along Badong-Maoping-Tumen

      图  4  巫山-土门人工地震测深剖面(修编自陈学波等,1994)

      Fig.  4.  Profile of artificial earthquake sounding along Wushan-Tumen

      图  5  巫山-土门区域综合地球物理剖面解释(部分内容参考陈学波,1994Li et al., 2009)

      1.陆相沉积层;2.海相沉积层;3.基底变质岩花岗质岩;4.闪长质岩;5.辉长质岩;6.壳幔过渡层;7.镁铁质橄榄岩;8.地幔热流体储集体;9.渗水引起的低速异常;10.低速层位置;11.莫霍面及推测部分;12.断层

      Fig.  5.  Comprehensive geophysical interpretation profile along Wushan-Tumen

      图  6  巴东地震余震分布图及主震震源机制解(http://www.csi.ac.cn/manage/eqDongTop/aftershock/aftershock.html)

      Fig.  6.  Distribution of aftershocks and the mainshock's focal mechanism in Badong

      图  7  次声波与地震波的时频分析

      Fig.  7.  Time-frequency analysis for infrasound and seismic waves

      图  8  次声波与地震波(ENH、ZG)滤波后波形

      Fig.  8.  Waveform of infrasound and seismic waves(ENH, ZG) after filtering

      图  9  质点运动轨迹

      Fig.  9.  Moving path of particle

      表  1  震源机制结果

      Table  1.   Result of mechanism solutions of earthquake

      节面Ⅰ 节面Ⅱ P轴 T轴 N轴
      Φs δ λ Φs δ λ Az Pl Az Pl Az Pl
      73° 56° 170° 168° 82° 34° 296 17° 36° 30° 181° 55°
      注:Φs为走向;δ为倾角;λ为滑动角;Az为方位角;Pl为倾角.
      下载: 导出CSV

      表  2  水库诱发地震的特征(陈德基等,2008)

      Table  2.   The characteristics of reservoir-induced earthquake

      要素 特征
      平面分布 主要集中在库盆和距离库岸边5 km范围内,少有超过10 km者.
      震源深度 震源深度极浅,绝大部分震源深度在3~5 km范围内,直至近地表.
      震级大小 绝大部分是微震和弱震.
      发震时间 主震发震时间和水库蓄水过程相关.
      地震趋势 水库诱发地震的频度和强度随着时间的延长呈明显下降趋势
      波形频率 具有较高的地震动频率、地面峰值加速度和震中烈度.
      地震类型 震型以前震-主震-余震型和群震型居多(陶忠平,2006).
      下载: 导出CSV

      表  3  次声波与地震波互相关系数列表

      Table  3.   Coefficient of association between infrasound and seismic waves

      地震台站 45号 48号 207号
      S(km) Ts(s) Tc(s) Cor S(km) Ts(s) Tc(s) Cor S(km) Ts(s) Tc(s) Cor
      恩施台(EN) 118.0 42.1 41.7 0.82 112.0 40.0 44.1 0.77 117.0 41.8 42.5 0.72
      秭归(ZG) 44.0 16.3 20.9 0.51 49.3 18.2 16.9 0.50 44.0 16.3 18.0 0.38
      注:S为次声波监测仪与地震台站的等效距离;Ts为理论到时;Tc为实际到时;Cor为互相关系数.
      下载: 导出CSV

      表  4  次声台站和地震台站对震中的方位角与震中距

      Table  4.   Azimuth and distance between stations of infrasound monitor array & seismographs and epicenter

      台站名 方位角 距离(km)
      次声波台站 45 247.00° 12.75
      48 228.38° 7.66
      207 241.47° 12.98
      地震台站 ENH 225.32° 129.30
      ZG 120.67° 57.54
      下载: 导出CSV
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