水口水电站,Shuikou Hydropower Station
1)Shuikou Hydropower Station水口水电站
1.Contact analysis of the gap between dam and plant of the Shuikou Hydropower Station;水口水电站厂坝接触分析
2.Accuracy analysis on horizontal displacement observation for gate of Shuikou Hydropower Station;水口水电站船闸水平位移观测精度分析及方法探讨
3.Statistical analysis on the temperature measurement results of low temperature concrete for Shuikou Hydropower Station;水口水电站低温混凝土测温成果统计分析
英文短句/例句

1.Application of Underwater Gate Blockage Technology on Shuikou Hydropower Station水下封堵门技术在水口水电站中的应用
2.The necessity of building Shuihou Hydropower Station System is expounded in the paper.论述了水口水电站建立仿真系统的必要性。
3.Abstract: The necessity of building Shuihou Hydropower Station System is expounded in the paper.文摘:论述了水口水电站建立仿真系统的必要性。
4.Application of the prestressed anchorage technology to the Shuikou project预应力锚固技术在水口水电站工程中的应用
5.Study on the Hydraulic Characteristics of Multi-Level Intake Structure of Hydropower Station;水电站进水口分层取水水力特性研究
6.Recheck stability of left bank slope at water intake of Baise HPP百色水电站进水口左侧边坡稳定复核
7.Numerical simulation on the side inlet/outlet of pumped storage power station抽水蓄能电站侧式进/出水口数值模拟
8.The Research on Outflow Characteristic of Flank Inlet-Outlet in Pumped Storage Station;抽水蓄能电站侧式进出水口出流水流特性研究
9.Study on the Hydraulic Characteristics at the Side Inlet/outlet of the Pumped Storage Plant;抽水蓄能电站侧式进/出水口水力特性研究
10.Study on Hydraulic Characteristics of the Vertical Pipe Intake of Pumped Storage Plants抽水蓄能电站竖井式进水口水力特性研究
11.Under-Crossbeam Breaking Treatment of No.3 Trashrack on Water Inlet in Jiangk ou Hydropower Station江口水电站进水口3号拦污栅下横梁断裂处理
12.The Stability Analysis of the In-Outflow Slope of Shuangjiangkou Hydroelectric Power Station;双江口水电站进出水口边坡稳定性分析
13.THYRIPOL excitation system for Shuikou Power generator水口电站THYRIPOL型发电机可控硅励磁系统
14.floating power barge水上动力站水上发电站
15.Design of the mix proportion of RCC for Linhekou Hydropower Station蔺河口水电站碾压混凝土配合比设计
16.Impact of 5.12 Earthquake on the Dam of Bikou Hydropower Station“5.12”地震对碧口水电站大坝影响分析
17.Crack treatment on concrete arch dam of Xiakou Hydropower Station峡口水电站工程混凝土拱坝裂缝处理
18.Construction of impervious wall in CFRD of Laodukou Hydropower Station老渡口水电站面板堆石坝防渗墙施工
相关短句/例句

the Shuikou project水口水电站
1.Lay-out of the Shuikou project and the major technical measures taken;水口水电站枢纽布置及有关技术问题
2.Construction management of the Shuikou project: practice and diacussion;水口水电站建设管理的实践与探讨
3)Shuikou hydropower station水口电站
1.No.19 dam block of Shuikou hydropower station;水口电站19号坝段观测数据处理方法
4)Hongkou hydropower station洪口水电站
1.Application of new technology of lean cemented aggregate in Hongkou Hydropower Station construction;贫胶粗粒料筑坝新技术在洪口水电站的设计与实施
2.Based on the scheduled construction progress of the RCC dam in Hongkou hydropower station,numerical simulation is used to simulate and calculate temperature field and stress field during construction and operation stages of the RCC dam.根据洪口水电站碾压混凝土大坝的施工进度,进行了大坝施工期和运行期的温度场和应力场的仿真计算,讨论了坝体设置诱导缝和永久横缝的优劣,分析可能产生裂缝的原因及提出相应的温控防裂措施。
5)TangKou hydropower station塘口水电站
1.The TangKou hydropower station is based on the chap ash-rock,which develops much fault and cranny,the integrality of rock body is poor and the penetrate ability is strong,the influence of the construct quantity and long time run,many central leakage appear in the grouting gallery and drain gallery of the dam.塘口水电站大坝基础座落在断层和裂隙较发育的龟裂纹灰岩上,岩体完整性差、透水性强,多年运行后,大坝灌浆廊道和排水廊道出现多处集中性漏水,为确保大坝安全和电站正常发电,根据渗漏性质和成因,采用对灌浆廊道补充帷幕灌浆,对排水廊道进行固结+帷幕+回填灌浆。
6)Jiangkou Hydropower Station江口水电站
1.Calculation of elliptic double-curvature arch dam coordinates in Jiangkou hydropower station;江口水电站椭圆双曲拱坝坐标计算
2.Analysis of No1 rock body stability in left bank of Jiangkou hydropower station arch dam;江口水电站拱坝左岸1号危岩体稳定分析
3.Figure characteristic of ellipse double-curvature arch damin Jiangkou hydropower station;江口水电站椭圆型双曲拱坝体形特点
延伸阅读

水口水电站

水口水电站

Shuikou Hydropower Station 概  述   水口水电站位于中国福建省、闽江干流上,距福州市84km。混凝土重力坝,最大坝高101m,水库总库容29.7亿m3。电站装机140万kW,保证出力20.6万kW,多年平均发电量49.5亿kW·h。工程有防洪、发电、航运、养殖等作用。工程于1987年3月开工,1993年8月第一台机组发电,1996年11月竣工。水库淹没耕地2010hm2,移民6.3万人。   坝址以上控制流域面积52438km2,占闽江总流域面积的86%。坝址多年平均流量为1728m3/s,年径流量545亿m3,实测最大流量为30200m3/s,最小流量196m3/s。   工程按千年一遇洪水设计,万年一遇洪水校核,相应流量43600m3/s和51800m3/s。水库正常蓄水位高程65m,相应库容23.4亿m3,死水位55m。   坝址两岸地形基本对称,山体雄厚,常水位时河床宽约380m,两岸岸坡较缓。坝址处基岩为燕山期黑云母花岗岩,岩性坚硬完整,平均湿抗压强度一般在1000kg/cm2以上;河床覆盖层厚约3~11m,深槽最厚处为29m。库区周围均由岩浆岩、碎屑岩等组成,坝址区在构造上属于相对稳定地区,末发现较大的断裂。 枢纽布置   由混凝土重力坝、厂房、过船和过木建筑物组成。厂房布置在左岸,通航建筑物布置在右岸,河床布置溢洪道。拦河坝坝顶高程74m,坝顶全长791m。分42个坝段。其中7~21号为电站进水口坝段,23~35号为溢洪道坝段,22和36号为泄水底孔坝段,37和38号分别为船闸和升船机。表孔溢洪道有4孔,位于河床中间,堰顶高程45m,孔口宽16m,采用消力戽消能。中孔溢洪道9孔,位于表孔溢洪道的右侧,孔底高程40m,孔口宽13m,高14.5m,根据施工导流布置的需要,中孔坝段内设有6个导流底孔。2个泄水底孔位于河床右侧紧靠航运建筑物的一个坝段内,孔口尺寸宽5m,高8m,进口底高程25m,出口消能方式采用挑流。厂房位于河床左侧坝后,内设7台单机容量20万kW的大型轴流式水轮发电机组;采用单机单管引水方式,钢管内直径10.5m。     主厂房全长约301m,宽36m,高62.3m。由于下游洪水位较高,采用封闭式钢筋混凝土整体厂房结构。装配场位于厂房左端岸边。500kV主变压器6台,220kV主变压器3台,联络变压器4台,均布置在厂坝间副厂房顶层。以3回500kV和6回220kV输电线路出线。三级连续船闸位于右岸,1号闸室长78m,2、3号闸室各长91m,宽度均为12m,槛上水深2.5m,包括4个闸首,3个闸室及上下游引航道,总长1198m,总的提升高度57.36m。输水系统采用二区段等惯性分散输水方式。升船机位于三级船闸右侧,船厢有效尺寸114.0m×12.0m×2.5m,总重5300t,最大升程59.0m。船闸和升船机均可通过2×500t级一顶二驳标准船队。过坝年货运量410万t,年木竹过坝量200万~250万t。   工程的总工程量:基础开挖214万m3,岩石明挖665万m3,石方洞挖2.79万m3,石方填筑280万m3,混凝土浇筑量348万m3,金属结构安装18200t。采用明渠导流,明渠宽75m,长1170m,纵坡3‰,50年一遇导流流量32200m3/s,上游围堰高55m,下游围堰高31.9m。围堰下部为塑性混凝土防渗墙,上部为厚0.8mm的双面复合土土薄膜。1989年9月截流,立堵截流流量1133m3/s,龙口宽82m,最大落差0.95m,最大流速3.3m/s,抛投强度33700m3/d,费时15h。