首都圈地区土壤气Rn, Hg, CO2地球化学特征及其成因

王喜龙, 李营, 杜建国, 陈志, 周晓成, 李新艳, 崔月菊, 王海燕, 张志宏

王喜龙, 李营, 杜建国, 陈志, 周晓成, 李新艳, 崔月菊, 王海燕, 张志宏. 2017: 首都圈地区土壤气Rn, Hg, CO2地球化学特征及其成因. 地震学报, 39(1): 85-101. DOI: 10.11939/jass.2017.01.008
引用本文: 王喜龙, 李营, 杜建国, 陈志, 周晓成, 李新艳, 崔月菊, 王海燕, 张志宏. 2017: 首都圈地区土壤气Rn, Hg, CO2地球化学特征及其成因. 地震学报, 39(1): 85-101. DOI: 10.11939/jass.2017.01.008
Wang Xilong, Li Ying, Du Jianguo, Chen Zhi, Zhou Xiaocheng, Li Xinyan, Cui Yueju, Wang Haiyan, Zhang Zhihong. 2017: Geochemical characteristics of soil gases Rn, Hg and CO2 and their genesis in the capital area of China. Acta Seismologica Sinica, 39(1): 85-101. DOI: 10.11939/jass.2017.01.008
Citation: Wang Xilong, Li Ying, Du Jianguo, Chen Zhi, Zhou Xiaocheng, Li Xinyan, Cui Yueju, Wang Haiyan, Zhang Zhihong. 2017: Geochemical characteristics of soil gases Rn, Hg and CO2 and their genesis in the capital area of China. Acta Seismologica Sinica, 39(1): 85-101. DOI: 10.11939/jass.2017.01.008

首都圈地区土壤气Rn, Hg, CO2地球化学特征及其成因

基金项目: 

中国地震局地震监测预报专项项目 20160114

中国地震局地震预测研究所基本科研业务专项 2016IES0303

国家自然科学基金(41573121)、 中国地震局地震预测研究所基本科研业务专项(2016IES0303)和中国震局地震监测预报专项项目(20160114)共同资助

国家自然科学基金 41573121

详细信息
    通讯作者:

    李营: e-mail: subduction6@hotmail.com

  • 中图分类号: P315.72+4

Geochemical characteristics of soil gases Rn, Hg and CO2 and their genesis in the capital area of China

  • 摘要: 对首都圈地区跨18条活动断裂的35条剖面进行了土壤气浓度和通量测量, 结果显示: 各测量剖面土壤气Rn, Hg和CO2的浓度平均值分别为3.2—45.0 kBq/m3, 3.9—24.9 ng/m3和0.154%—2.175%; 其通量平均值分别为3.8—152.1 mBq/(m2·s), 0.1-42.6 ng/(m2·h)和8.5—89.4 g/(m2·d). 研究区土壤气Rn, Hg和CO2的浓度和通量均呈东高西低的变化趋势, 与首都圈地区由西至东应力水平增高、 地壳厚度逐渐减薄、 沉积层厚度增大、 地震活动逐渐增强等趋势相对应, 这表明首都圈地区土壤气的区域地球化学特征主要受控于上地壳物质结构、 深部气体补给和地震活动, 同时也受到自然环境及土壤类型的影响.
    Abstract: The concentration and flux of soil gases were measured at 35 profiles across 18 faults in the capital area of China from June to July of 2015, and the geochemical characteristics and sources of soil gases Rn, Hg and CO2 in the area were also investigated. The results showed that the average concentrations of Rn, Hg and CO2 varied from 3.2 to 45.0 kBq/m3, 3.9 to 24.9 ng/m3 and 0.154% to 2.175%, respectively. The average flux values of Rn, Hg and CO2 ranged from 3.8 to 152.1 mBq/(m2·s), 0.1 to 42.6 ng/(m2·h) and 8.5 to 89.4 g/(m2·d), respectively. There is an obvious spatial distribution feature of soil gases that both the concentration and flux values in the eastern region were higher than those in the western region within the studied area, which could be attributed to the increased tectonic stress, the decreased crustal thickness, the increased thickness of sediments and earthquake activity from west to east. These spatial geochemical characteristics in the studied area might be mainly controlled by the upper crustal material structure, deep gas supply and seismic activity, and also additionally affected to some degree by the natural environment and soil types.
  • 图  1   首都圈地区构造和历史中强震分布(公元前780年—2015年1月1日)

    F1: 口泉断裂; F2: 六棱山断裂; F3: 大同火山断裂; F4: 阳高—天镇断裂; F5: 蔚县—广灵断裂; F6: 阳原盆地断裂;F7: 怀安盆地北缘断裂; F8: 张家口断裂; F9: 沙城断裂; F10: 怀来—涿鹿断裂; F11: 延庆—矾山断裂; F12: 夏垫断裂; F13: 蓟县山前断裂; F14: 宝坻断裂; F15: 天津北断裂; F16: 沧东断裂; F17: 海河断裂; F18: 唐山断裂,下同

    Figure  1.   Sketch map showing tectonic settings and historical moderate-strong earthquakes of the capital area of China from 780 BC to January 1,2015

    The inverse triangles denote the measuring sites of soil gas,and the black lines denote fault,the same below. F1: Kouquan fault; F2: Liulengshan fault; F3: Datong volcanic fault; F4: Yanggao-Tianzhen fault;F5: Yuxian-Guangling fault; F6: Yangyuan basin fault ; F7: Northern marginal fault of Huaian basin; F8: Zhangjiakou fault; F9: Shacheng fault; F10: Huailai-Zhuolu fault; F11: Yanqing-Fanshan fault; F12: Xiadian fault; F13: Jixian piedmont fault; F14: Baodi fault; F15: Nor-thern Tianjin fault; F16: Cangdong fault; F17: Haihe fault; F18: Tangshan fault

    图  2   首都圈地区土壤气浓度和通量布点示意图

    Figure  2.   Measuring sites for the concentration (dots)and flux(inverse triangles)of soil gases in the capital area of China

    图  3   首都圈地区土壤气浓度C及通量F平均值分布

    Figure  3.   Distribution of average concentration C(squares)and flux F(dots)for soil gases Rn,CO2 and Hg in the capital area of China

    图  4   首都圈地区土壤气测点布设及浓度平均值示意图

    Figure  4.   Arrangement of measuring sites and the average concentration of soil gases in the capital area of China

    图  5   首都圈地区土壤气通量平均值示意图

    Figure  5.   Average flux of soil gases in the capital area of China

    图  6   2014年5月1日—2015年5月1日首都圈地区小震活动空间分布图

    Figure  6.   Distribution of small earthquakes in the capital area of China from May 1,2014 to May 1,2015

    表  1   首都圈地区土壤气Rn,Hg和CO2 的组分浓度C和通量F

    Table  1   Flux F and constituent concentration C for soil gases Rn,Hg and CO2 in the capital area of China

    地点测点
    代号
    CRn/(kBq·m-3)CHg/(ng·m-3)CCO2FRn/(mBq·m-2·s-1)FHg/(ng·m-2·h-1)FCO2/(g·m-2·d-1)
    最大值最小值平均值最大值最小值平均值最大值最小值平均值最大值最小值平均值最大值最小值平均值最大值最小值平均值
    石井村SJC18.45.48.329612.80.515%0.082%0.203%27.440.227.420.68.113.438.68.027.1
    上皇庄SHZ11.01.07.460824.91.242%0.087%0.182%31.548.431.546.64.823.413.64.28.5
    大同火山DTHS13.75.27.91236.60.442%0.179%0.243%35.244.035.23.61.02.137.60.117.9
    东后子口DHZC5.91.13.230312.20.369%0.146%0.204%13.024.213.014.21.56.828.911.321.3
    阎家窑YJY9.52.84.82049.20.216%0.107%0.154%26.449.926.415.47.710.034.58.323.3
    宜兴庄YXZ11.82.05.71669.00.479%0.070%0.173%8.514.18.520.95.112.038.38.924.4
    北口村BKC11.32.95.6936.11.116%0.373%0.570%4.98.74.94.71.73.115.68.212.4
    榆林口YLK9.32.54.71247.10.482%0.208%0.346%13.317.513.34.04.04.040.427.934.1
    张仲口ZZK10.53.97.23449.70.302%0.108%0.193%25.840.525.88.30.12.931.522.527.3
    南口村NKC7.52.25.91357.80.870%0.124%0.491%7.114.17.69.54.26.369.922.040.7
    羊窑沟YJG7.43.65.520510.60.276%0.152%0.201%25.636.425.60.10.10.131.115.723.8
    张家窑ZJY6.92.14.3633.90.864%0.349%0.597%14.422.414.40.40.20.353.08.526.3
    万全县WQX14.06.810.61847.40.295%0.220%0.258%18.024.718.01.501.116.59.114.0
    青边口QBK11.84.28.01045.60.503%0.317%0.393%31.548.431.510.71.33.846.518.928.9
    郝家坡HJP16.74.38.91235.71.340%0.174%0.604%8.913.28.920.14.27.733.510.024.8
    西洪站XHZ12.83.26.2924.90.561%0.243%0.404%12.820.612.816.12.38.846.612.231.8
    东园子DYZC14.80.76.230410.46.004%0.058%2.175%10.318.110.315.61.67.557.81.432.1
    良田屯LTT10.83.07.427612.81.282%0.196%0.501%20.124.720.14.22.13.037.728.532.9
    八营村BYC7.53.96.31157.90.292%0.175%0.257%23.036.623.03.60.62.413.204.3
    蚕房营CFY21.34.410.81215.02.118%0.195%0.648%23.545.723.58.94.36.141.022.334.3
    玉皇庙YHM15.95.511.41124.30.477%0.303%0.399%24.748.724.721.80.37.451.023.036.0
    大东关DDG40.220.95.61846.10.783%0.406%0.570%5.91.73.81.00.60.85.12.53.8
    潘各庄PGZ63.434.245.02046.91.516%0.091%0.904%148.129.471.117.17.412.0154.653.689.4
    齐心庄QXZ44.410.425.91638.22.160%0.646%1.394%25.48.017.54.01.02.167.416.841.6
    王家口WJK71.50.66.295713.81.393%0.054%0.333%76.515.748.343.68.429.068.349.961.3
    八户村BHC40.06.416.030611.43.790%0.333%1.103%50.724.040.09.42.45.9113.066.184.5
    陈家庵CJA56.81.029.927713.82.438%0.073%0.851%97.648.074.526.113.121.043.135.276.9
    北怀淀BHD28.50.36.326613.30.544%0.058%0.206%159.078.7110.734.219.929.469.239.750.5
    何家洼HJW30.40.56.1135619.90.889%0.075%0.326%73.441.456.045.139.142.686.436.964.0
    邓善沽DSG40.60.420.724612.43.347%0.072%1.386%294.93.2152.110.84.87.8136.128.681.8
    朱头淀ZTD82.80.39.920611.33.908%0.056%0.364%50.54.324.141.725.434.057.530.942.3
    南营村NYC53.53.419.524411.21.548%0.059%0.828%33.59.521.522.613.518.765.453.459.4
    吴家庄WJZ37.01.213.986721.52.049%0.148%0.826%94.749.064.33.20.61.952.623.142.0
    丰南FN31.13.715.834815.97.212%0.398%1.851%38.916.524.224.89.216.343.533.337.2
    巍峰山WFS28.20.59.2221013.70.791%0.080%0.301%35.022.327.618.22.29.064.027.242.8
    下载: 导出CSV

    表  2   山西地震带北段和张渤地震带陆地段的地震活动性参数与活动习性(武敏捷等,2013)

    Table  2   The seismic activity parameters and characteristics in north section of Shanxi seismic belt and the land area of Zhangjiakou-Bohai seismic belt(after Wu et al,2013)

    地震带段落名称b断裂活动习性
    山西地震带北段 赤城—张家口0.87相对闭锁
    张家口—大同0.84中等频度中小地震
    张渤地震带陆地段尚义—张家口0.57中等频度中小地震
    涿鹿—延庆 0.72小震活动
    延庆—怀柔 0.72相对闭锁
    三河—玉田 0.89频繁小震活动
    玉田—唐山 0.81中等频度中小地震
    下载: 导出CSV

    表  3   张渤地震带部分台站h-k扫描结果(张莹莹等,2015)

    Table  3   h-k searching results for some stations in Zhangjiakou-Bohai seismic belt(after Zhang et al,2015)

    序号台站h/km波速比k
    1CHC40±1.281.74±0.044
    2LBP37±0.071.84±0.022
    3MIY34±1.171.85±0.039
    4XIL34±0.921.79±0.035
    5XLD33±1.061.79±0.038
    6QIX30±0.921.86±0.045
    7CLI32±1.431.76±0.062
    注: 台站按张渤地震带自西向东排序,h为莫霍面深度.
    下载: 导出CSV
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出版历程
  • 收稿日期:  2016-06-05
  • 修回日期:  2016-09-28
  • 发布日期:  2016-12-31

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