维普中文期刊产品整合服务
33篇 您的检索式:作者名="Shejiao"
    题名 作者 年代 出处 被引量
1Dynamics for multistage pool formation of Lunnan low uplift in Tarim Basin显示文摘Lunnan area in the Tarim Basin has become animportant onshore oil production base in China. Formationof the oil and gas pools in the low uplift of Lunnan has ex-perienced a comparatively complex process of dynamics.Based on the hydrocarbon generation period of source rocks,the formation period of cap rocks and traps, the analysis oforganic inclusion and the analysis of bitumen in the reservoir,this paper draws the conclusion that the low uplift area ofLunnan has experienced three pool formation periods: thePermian period, the Cretaceous-Early Tertiary period andthe Late Tertiary-Quaternary period and two oil and gasreservoir adjustment periods: the Late Permian period andthe Late Tertiary-Quaternary period. The comprehensivestudy indicates that the large-scale Ordovician buried hill,formed in Early Hercynian, became the reservoir during thePermian period, because the Cambrian-Lower Ordovicianoil was discharged laterally into the reservoir along the topof the Ordovician weathering crust from south to north. Thereservoir experienced a complicated process-reconstruc-tion in the end of Permian, adjustment in Cretaceous-EarlyTertiary and re-discharging process in Late Tertiary-Qua-ternary, leading to the early original heavy oil reservoir ofmarine facies and the late original light oil reservoir and gaspool. Carboniferous, Triassic and Jurassic oil and gas reser-voirs result from upward adjustment and re-distribution ofOrdovician oil and gas reservoirs. Of those results, the for-mation of Triassic-Jurassic oil and gas pools came under theinfluence of the northward-tilting structure. The oil and gassourcing from the different hydrocarbon source rock inter-vals vertically migrated into the base unconformity of Trias-sic system. Then the oil and gas migrated laterally fromnorth to south and accumulated into the reservoir.HE Dengfa JIA Chengzao LIU Shaobo PAN Wenqing WANG Shejiao 2002Chinese Science Bulletin2002,47,S1:11
2Terrestrial heat flow in Junggar Basin, Northwest China显示文摘Based on temperature logs of 117 boreholes and thermal conductivity of 119 rock samples, the first group of 35 heat flow data in the Junggar Basin are presented. The thermal gradients vary between 11.6 and 26.5℃/km , and the thermal conductivity changes from 0.17 to 3.6 W/mK. Heat flow ranges from 23.4 to 53.7 mW/m2 with a mean of (42.3±7.7) mW/m2. The heat flow pattern shows that heat flow is higher in the uplifts and lower in the depressions. The factors affecting the heat flow and its distribution include basin type, basement structure, sediment thickness, radioactive heat generation, etc. The overall low present-day heat flow in the Junggar Basin reflected its tectonothermal evolution characterized by lithospheric thickening, thrust and fault at shallow crust as well as consequently quick subsidence during the Late Cenozoic.WANG Shejiao HU Shengbiao LI Tiejun WANG Jiyang ZHAO Wenzhi 2000Chinese Science Bulletin2000,45,19:10
3New advances in the assessment of tight oil resource in China显示文摘The research on tight oil becomes another hotspot in the field of unconventional oil and gas after the boom of shale gas.The global recoverable resources of tight oil are estimated to be around 47.3×10^(9)t.In recent years,significant progress has been made in the technologies of tight oil exploration and development in North America,thus stimulating the dramatic increase of tight oil production.Meanwhile,China has also acquired remarkable achievements in tight oil exploration.Mature assessment methods have been established for tight oil resources by the US,generally dominated by analogy and statistical methods with their own advantages and disadvantages as well as applicable conditions.In China,improvement of resource evaluation techniques becomes an urgent issue in increasing tight oil reserve and production.This study mainly discusses the resource evaluation methods and resource enrichment characteristics of tight oil.Seven kinds of assessment methods in three categories(i.e.,analogy,statistical and genetic method)and evaluation parameters have been preliminary established,and are specifically applied in the Sichuan,Ordos,Songliao,Junggar,Bohai Bay and other tight oil basins through the newly hierarchical resource abundance analogy method,the estimated ultimate recovery(EUR)analogy method and the small-cell volumetric method.The preliminary evaluation results reveal that China has great potential in tight oil resource,and the geological resources amount to 20×10^(9)t,providing a resource base for large-scale development.Shejiao Wang Yuanjiang Yu Qiulin Guo Shaoyong Wang Xiaozhi Wu 2017Petroleum Research2017,2,1:4
4Geological Conditions and Prospect Forecast of Shale Gas Formation in Qiangtang Basin, Qinghai-Tibet Plateau显示文摘The presence of shale gas has been confirmed in almost every marine shale distribution area in North America. Formation conditions of shale gas in China are the most favorable for marine, organic-rich shale as well. But there has been little research focusing on shale gas in Qiangtang Basin, Qinghai-Tibet Plateau, where a lot of Mesozoic marine shale formations developed. Based on the survey results of petroleum geology and comprehensive test analysis data for Qinghai-Tibet Plateau, for the first time, this paper discusses characteristics of sedimentary development, thickness distribution, geochemistry, reservoir and burial depth of organic-rich shale, and geological conditions for shale gas formation in Qiangtang Basin. There are four sets of marine shale strata in Qiangtang Basin including Upper Triassic Xiaochaka Formation(T3x), Middle Jurassic Buqu Formation(J2b), Xiali Formation(J2x) and Upper Jurassic Suowa Formation(J3s), the sedimentary types of which are mainly bathyal-basin facies, open platform-platform margin slope facies, lagoon and tidal-flat facies, as well as delta facies. By comparing it with the indicators of gas shale in the main U.S. basins, it was found that the four marine shale formations in Qiangtang Basin constitute a multi-layer distribution of organic-rich shale, featuring a high degree of thickness and low abundance of organic matter, high thermal evolution maturity, many kinds of brittle minerals, an equivalent content of quartz and clay minerals, a high content of feldspar and low porosity, which provide basic conditions for an accumulation of shale gas resources. Xiaochaka Formation shale is widely distributed, with big thickness and the best gas generating indicators. It is the main gas source layer. Xiali Formation shale is of intermediate thickness and coverage area, with relatively good gas generating indicators and moderate gas formation potential. Buqu Formation shale and Suowa Formation shale are of relatively large thickness, and covering a small area, with poor gas generating indicators, and limited gas formation potential. The shale gas geological resources and technically recoverable resources were estimated by using geologic analogy method, and the prospective areas and potentially favorable areas for Mesozoic marine shale gas in Qiangtang Basin are forecast and analyzed. It is relatively favorable in a tectonic setting and indication of oil and gas, shale maturity, sedimentary thickness and gypsumsalt beds, and in terms of mineral association for shale gas accumulation. But the challenge lies in overcoming the harsh natural conditions which contributes to great difficulties in ground engineering and exploration, and high exploration costs.YU Yuanjiang ZOU Caineng DONG Dazhong WANG Shejiao LI Jianzhong YANG Hua LI Denghua LI Xinjing WANG Yuman HUANG Jinliang 2014Acta Geologica Sinica(English Edition)2014,88,2:2
5Membrane aromatic recovery system (MARS)-a new membrane process for the recovery of phenols from wastewaters显示文摘Han Shejiao Fredeico Castelo Ferreira Andrew Livingston 2001Journal of Membrane Science2001,188,:1
6Numerical analysis of electric-field distribution around composite insulator and head of transmission tower显示文摘ZhangBo Han Shejiao He Jinliang 2006IEEE Transactions on Power Delivery2006,21,2:1
7Voltage distribution analysis of 500 kV DC transmission-line voltage divider under impulse voltages:stray parameter extraction显示文摘He Jinliang Gu Shanqiang Han Shejiao 0,,02:1
8Numerical analysis of electric-field distribution around composite insulator and head of transmission tower显示文摘Zhang Bo Han Shejiao He Jinliang 2006IEEE Transactions on Power Delivery2006,21,2:1
9Shale gas accumulation conditions of Silurian in Upper Yangtze显示文摘Wang Shejiao Wang Lansheng Huang Jinliang Li Xinjing Li Denghua 2009Natural Gas Industry2009,29,5:1
10The effect of ionic liquids on product yield and catalyst stability显示文摘 Shejiao Han Livingston A G 2006Chemical Engineering Science2006,61,:1
11Membrane aromatic recovery system(MARS)-a new membrane process for the recovery of phenols from wastewater显示文摘Shejiao Han Frederico Castelo Ferreira Andrew Livingston 2001Journal of Membrane Science2001,88,:1
12Numerical analysis of electric-field distribution around composite insulator and head of transmission tower显示文摘Zhang Bo Han Shejiao He Jinliang 2006IEEE Transactions on Power Delivery2006,21,2:1
13On the Smarandache dual function显示文摘Shejiao Xue 0,,01:1
14Numerical analysis of electric-field distribution around composite insulator and head of transmission tower显示文摘 Shejiao Han Jinliang He 2006IEEE Trans on PWRD2006,21,2:1
15On the Smarandache dual function 显示文摘Shejiao Xue 2007Scientia Magna2007,3,1:1
16On the Smarandache dual function显示文摘XUE Shejiao 2007Scientia Magna2007,3,1:1
17Numerical analysis of electric-field distribution around composite insulator and head of transmission tower显示文摘Zhang Bo Han Shejiao He Jinliang 2006IEEE Trans on Power Delivery2006,21,2:1
18On the Smarandche dual function显示文摘Xue Shejiao 0,,01:1
19Periostin downregulation attenuates the pro-fibrogenic response of hepatic stellate cells induced by TGF-β1显示文摘Hong L Shejiao D Fenrong C 2015J Cell Mol Med2015,19,10:1
20Numerical analysis of electric-field distribution around composite insulator and head of transmission tower显示文摘Zhang Bo Han Shejiao He Jinliang 2006IEEE Transactions on Power Delivery2006,21,2:1
返回顶部 每页显示:
共2页 首页 上一页 第1页 下一页 末页 /2 跳转

网站首页 | 关于我们 | 联系我们 | 产品服务 | 客服中心 | 广告服务 | 版权声明 | 网站联盟 | 友情链接 | 售卡网点

版权所有© 渝B2-20050021-1 渝公网安备 50019002500403号 违法和不良信息举报中心

互联网出版许可证 新出网证(渝)字10号 全国400电话 - 免长途话费