A Comparative Analysis on Determination Methods of Up-floating Water Level ——A case study of Sandaocundong Station of East Extension Line of Changchun Metro Line 2
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摘要: 以长春地铁2号线东延三道村东站为例，分别采用数值模拟法、动态曲线比拟法、频率分析法和BP神经网络法对车站未来百年可能出现的最高水位进行了预测。用4种方法对地下水位埋深预测结果分别为2.0 m、2.31 m、2.05 m和2.13 m。结合孔隙水压力监测结果显示，该站孔隙水压力不存在折减的情况，综合确定最终抗浮水位埋深2.0 m，抗浮水位标高257.2 m。Abstract: This paper takes Sandaocundong Station of East Extension Line of Changchun Metro Line 2 as an example, using such methods as numerical simulation method, dynamic curve analogy method, frequency analysis method and BP neural network method to predict the possible maximum water level in the next century. The prediction results of groundwater depth from four methods are 2.0m, 2.31 m, 2.05 m and 2.13 m respectively. The monitoring of pore water pressure shows that there is no reduction of pore water pressure in this station. The final buried depth of up-floating water level is 2.0 m and the up-floating water level is 257.2 m.
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熊欢. 地下结构抗浮设计中浮力的研究[D].湖南:中南大学,2013. XIONG Huan.Research on Buoyancy in Anti-floating Design of Underground Structures[D]. Hunan:Central South University,2013.
苏会锋,靳露.交通工程专业轨道交通课程教学内容研究[J].大学教育,2015(09):154-155. SU Huifeng, JIN Lu. Research on the Teaching Content of Rail Transit Course for Traffic Engineering Major[J]. University Education,2015(09):154-155.
余良刚. 岩体基坑地下室抗浮设计水头合理取值研究[D]. 青岛:青岛理工大学,2013. YU Lianggang. Analysis on Reasonable Value for Anti-floating Design Head of the Rock Foundation Pit Basement[D]. Qingdao:Technological University,2013.
徐梦瑶. 长春市地铁一号线典型车站抗浮设防水位研究[D]. 吉林:吉林大学,2012. XU Mengyao.Research on Water Level for Prevention of Up-floating of Topical Stations in Metro Line One of Changchun[D]. Ji lin:Jilin University,2012.
何翠香.如何确定北京地铁工程的抗浮设防水位[J].工程勘察,2010(S1):747-751. HE Cuixiang.How to Determine the Anti-floating Waterproof Level of Beijing Metro Project[J]. Geotechnical Investigation & Surveying, 2010(S1):747-751.
马培贤.地铁车站抗浮设防水位确定方法浅析[J].西部探矿工程,2014,26(07):11-14+17. MA Peixian. Analysis on the Determination Method of Anti-floating Water Level in Subway Station[J]. West-China Exploration Engineering,2014,26(07):11-14+17.
杜超,肖长来,王益良,等.GMS在双城市城区地下水资源评价中的应用[J].水文地质工程地质,2009,36(06):32-36. DU Chao,XIAO Changlai,WANG Yiliang, et al.Application of GMS in Groundwater Resources Evaluation of Shuangcheng City[J]. Hydrogeology Engineering Geology, 2009,36(6):32-36.
陈昌亮,肖长来,赵琳琳,等. GMS在团结镇地下水流数值模拟中的应用[J]. 节水灌溉,2014(08):34-37. CHEN Changliang, XIAO Changlai,ZHAO Linlin,et al. Application of GMS in numerical simulation of groundwater flow in Tuanjie Town[J]. Water Saving Irrigation, 2014(08):34-37.
宋向明.低洼地区建筑的抗浮设计与设防水位合理确定[J]. 科学技术与工程,2016,16(35):273-277. SONG Xiangming. Anti-floating Design of Buildings in Low-lying Areas and Reasonable Determination of Fortification Water Level[J].Science Technology and Engineering,2016,16(35):273-277.
乔雨,梁秀娟,王宇博.两种模型在地下水埋深预测中的应用及对比研究[J].节水灌溉,2014(03):45-47+53. QIAO Yu,LIANG Xiujuan, WANG Yubo.Application and Comparative Study of Two Models in Prediction of Groundwater Depth[J]. Water Saving Irrigation, 2014(03):45-47+53.
王宇博,梁秀娟,乔雨,等.地下水位预测模型对比分析研究[J].节水灌溉,2015(07):58-61 WANG Yubo, LIANG Xiujuan, QIAO Yu,et al. Comparative and Analysis of Groundwater Level Prediction Models[J].Water Saving Irrigation,2015(07):58-61.
李广信,吴剑敏.浮力计算与粘土中的有效应力原理[J].岩土工程技术,2003(02):63-66. LI Guangxin,WU Jianmin.Calculation of Uplift Pressure on Underground Construction and Effective Stress Principle in Clay[J].Geotechnical Engineering Technique,2003(02):63-66.
曹成立.长春市地下水动态研究[J].世界地质,2010,29(03):479-484. CAO Chengli. Study on Groundwater Dynamics in Changchun City[J]. Global Geology,2010,29(03):479-484.
罗杰,王文科,段磊,等.银川平原地下水位变化特征及其成因分析[J].西北地质,2020,53(01):195-204. LUO Jie,WANG Wenke,DUAN Lei,et al. Dynamic Analysis of Groundwater Level in Yinchuan Plain[J]. Northwestern Geology,2020,53(1):195-204.
王疆霞,李云峰,徐中华.GIS技术及其在水文学和水资源管理方面的应用[J].西北地质,2003,36(01):109-113. WANG Jiangxia,LI Yunfeng,XU Zhonghua.Geographic information system and its applications to hydrology and water resources management[J].Northwestern Geology,2003,36(01):109-113.
刘虎生.基于BP神经网络的矿井通风系统安全评价研究[J].山西煤炭,2008(01):39-41. LIU Husheng. Safety Evaluating of Shaft Ventilation System Based on BP Neural Network[J]. Shanxi Coal,2008(01):39-41.
DU Chao,XIAO Changlai,LIANG Xiujuan. Groundwater Numeric Simulation in the Water Source Site of Shuangcheng City[A]. Flow in Porous Media——From Phenomena to Engineering and Beyond:Conference Paper from 2009 International Forum on Porous Flow and Applications[C]. 2009:813-817.
FANG Zhang,XIAO Changlai,MA Zhe. Application of Modflow in Hydrological Parameters Calculation in Pumping Test of Large Base Dewatering Projects[A]. Flow in Porous Media——From Phenomena to Engineering and Beyond:Conference Paper from 2009 International Forum on Porous Flow and Applications[C]. 2009:1006-1011.
FENG Bo,XIAO Changlai,ZHOU Yubo. Groundwater Level Forecast and Prediction of Songnen Plain in Jilin Province[A]. Flow in Porous Media-From Phenomena to Engineering and Beyond:Conference Paper from 2009 International Forum on Porous Flow and Applications[C]. 2009:1012-1016.
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