地下水利工程战略构想及关键技术展望

doi:10.13722/j.cnki.jrme.2017.1058

Abstract
Figure/Table
References (0)
Related Citation (15)

Download: PDF (2895 KB) HTML (1 KB)
Export: BibTeX | EndNote (RIS)

Abstract The growth of global population，the resource shortage and the environmental pollution have brought unprecedented challenges to the development human sociaty. The water is the source of life，the basics of production and the foundation of ecosystem. The issues such as the shortage of shallow surface water，the ineffectively-controlled water pollution and the groundwater level decline confront significantly our life. Under the deep surface of earth，however，there is abundant water resource. The underground hydraulic engineering (UHE) is aiming to solve the issue of surface water shortage，to develop and utilize the groundwater resources sustainably and to provide the reliable water resources for underground spaces. This paper extends the traditional water resources engineering from surface to deep underground，and proposes the strategies，connotation and development principles of UHE. Three key scientific questions are summarized as the existence and movement of deep groundwater，the regulation of groundwater resource and the safety protection of underground hydraulic engineering. Several critical technologies are proposed including the underground water corridor，the underground water reservoir，the underground water network and storage，the groundwater level regulation，the underground energy storage and power generation，and the groundwater eco-environment monitoring，protection and restoration. These strategic ideas and key technologies are expected to provide the scientific supports for the green utilization of underground space and the national development of ecological civilization.

Key words： hydraulic engineering underground water corridor underground reservoir underground water network groundwater level control underground energy storage ecological environment of underground water

	Service

	E-mail this article
	Add to my bookshelf
	Add to citation manager
	E-mail Alert
	RSS
	Articles by authors
	XIE Heping1
	XU Weilin1
	2
	LIU Chao1
	2
	YANG Xingguo1
	2

Cite this article:

XIE Heping1,XU Weilin1,2, et al. The subversive idea and key technical prospects on underground hydraulic engineering[J]. , 2018, 37(4): 781-791.

URL:

https://rockmech.whrsm.ac.cn/EN/10.13722/j.cnki.jrme.2017.1058 OR https://rockmech.whrsm.ac.cn/EN/Y2018/V37/I4/781

[1] 联合国教科文组织. 联合国世界水发展报告[M]. [S. l.]：[s. n.]，2016：17–22.(UNESCO. The united nations world water development report[M]. [S. l.]：[s. n.]，2016：17–22.(in Chinese))
[2] 中华人民共和国水利部. 中国水资源公报2016[EB/OL]. http：// www.mwr.gov.cn/sj/tjgb/szygb/201707/t20170711_955305.html，2017–7–12.(in Chinese))
[3] 中华人民共和国环境保护部. 2016年中国环境状况公报[EB/OL]. http：//www.mep.gov.cn/hjzl/zghjzkgb/lnzghjzkgb/. html，2017–5–31.
[4] 汪易森，杨元月. 中国南水北调工程[J]. 人民长江，2005，36(7)：2–5.(WANG Yisen，YANG Yuanyue. South-to-north water transfer project of China[J]. Yangtze River，2005，36(7)：2–5.(in Chinese))
[5] WILLIAMS Q，HEMLEY R J. Hydrogen in the deep earth[J]. Hydrogen in the deep Earth[J]. Annual Review of Earth and Planetary Sciences，2001，29(1)：365–418.
[6] BELL D R，ROSSMAN G. Water in earth?s mantle：the role of nominally anhydrous minerals[J]. Science，1992，255：1 391–1 397.
[7] GLEESON T，BEFUS K M，JASECHKO S，et al. The global volume and distribution of modern groundwater[J]. Nature Geoscience，2016，9(2)：161–167.
[8] 谢和平. 深地科学三个颠覆性创新理论与技术构想[R]. 北京：地球深部探测中心，2016.(XIE Heping. Three disruptive innovation theories and technical ideas of deep science[R]. Beijing：Deep Earth Exploration Center，2016.(in Chinese))
[9] 谢和平，高峰，鞠杨，等. 深地科学领域的若干颠覆性技术构想和研究方向[J]. 工程科学与技术，2017，49(1)：1–8.(XIE Heping，GAO Feng，JU Yang，et al. Novel idea and disruptive technologies for the exploration and research of deep earth[J]. Advanced Engineering Sciences，2017，49(1)：1–8.(in Chinese))
[10] 谢和平，高峰，鞠杨. 深部岩体力学研究与探索[J]. 岩石力学与工程学报，2015，34(11)：2 161–2 178.(XIE Heping，GAO Feng，JU Yang. Research and development of rock mechanics in deep ground engineering[J]. Chinese Journal of Rock Mechanics and Engineering，2015，34(11)：2 161–2 178.(in Chinese))
[11] 陈建生，江巧宁. 地下水深循环研究进展[J]. 水资源保护，2015，31(6)：8–17.(CHEN Jiansheng，JIANG Qiaoning. Research progress of ground water deep circulation[J]. Water Resources Protection，2015，31(6)：8–17.(in Chinese))
[12] GRASBY S E，PROEMSE B C，BEAUCHAMP B. Deep groundwater circulation through the High Arctic cryosphere forms Mars-like gullies[J]. The Geological Society of America，2014，42(8)：651–654.
[13] 王多君，易丽. 地球深部的水[J]. 中国科学院研究生院学报，2009，(6)：721–730.(WANG Duojun，YI Li. Water in the earth?s interior[J]. Journal of the graduate school of the Chinese Academy of Science，2009，(6)：721–730.(in Chinese))
[14] ALLEY W M，BAIR E S，WIREMAN M. “Deep” groundwater[J]. Ground Water，2015，51：653–654.
[15] GETCHELL F，WILEY D. Artificial recharge enhances aquifer capacity[J]. Water Engineering and Management，1995，142(11)：24–27.
[16] JHA M K，CHIKAMORI K，KAMII Y，et al. Effectiveness of the Ka mo river for artiticially recharging the Takaoka aquifer，Tosa city Japan[J]. International Agricultural Engineering Journal，1998，7(2)：87–108.
[17] 朱思远，田军仓，李全东. 地下水库的研究现状和发展趋势[J]. 节水灌溉，2008，(4)：23–27.(ZHU Siyuan，TIAN Juncang，LI Quandong. Current situation and development trend of research on groundwater reservoir[J]. Water Saving Irrigation，2008，(4)：23–27.(in Chinese))
[18] 李旺林，束龙仓，殷宗泽. 地下水库的概念和设计理论[J]. 水利学报，2006，37(5)：613–618.(LI Wanglin，SHU Longchang，YIN Zongze. Concept and design theory of groundwater reservoir[J]. Journal of Hydraulic Engineering，2006，37(5)：613–618.(in Chinese))
[19] 顾大钊. 煤矿地下水库理论框架和技术体系[J]. 煤炭学报，2015，40(2)：239–246.(GU Dazhao. Theory framework and technological system of coal mine underground reservoir[J]. Journal of China Coal Society，2015，40(2)：239–246.(in Chinese))
[20] YI L，XIA R，TANG J，et al. Karst conduit hydro-gradient nonlinear variation feature study：case study of Zhaidi karst underground river[J]. Environmental Earth Sciences，2015，74(2)：1 071–1 078.
[21] CHEN J S，LI L，WANG J Y，et al. Water resources：Groundwater maintains dune landscape[J]. Nature，2004，432：459–460.
[22] LUND J W，BOYD T L. Direct utilization of geothermal energy 2015 worldwide review[J]. Geothermics，2016，60：66–93.
[23] BAYER P，RYBACH L，BLUM P，et al. Review on life cycle environmental effects of geothermal power generation[J]. Renewable and Sustainable Energy Reviews，2013，26：446–463.
[24] JIANG Q，FENG X T. Intelligent stability design of large underground hydraulic caverns：Chinese method and practice[J]. Energies，2011，(4)：1 542–1 562.
[25] WASHINGTON D C. FERC receives draft application for 260–MW Mineville underground pumped-storage project[EB/OL]. Http：// www.hydroworld.com/articles/2013/10/ferc-receives-draft-application-for–260-mw-mineville-underground-pumped-storage-project. html，2013–10–09.
[26] .JIANG R，WANG J H，GUAN Y P. Robust unit commitment with wind power and pumped storage hydro[J]. IEEE Transactions on Power Systems，2012，27(2)：800–810.
[27] HOFMANN H，BABADAGLI T，ZIMMEMANN G. Hot water generation for oil sands processing from enhanced geothermal systems：process simulation for different hydraulic fracturing scenarios[J]. Applied Energy，2014，113：524–547.
[28] OLASOLO P，JUÁREZ M C，MORALES M P，et al. Enhanced geothermal systems(EGS)：A review[J]. Renewable and Sustainable Energy Reviews，2016，56：133–144.
[29] ANDRÉ L，RABEMANANA V，VUATAZ F D. Influence of water-rock interactions on fracture permeability of the deep reservoir at Soultz-sous-Forêts，France[J]. Geothermics，2006，35：507–531.
[30] CAROTENUTO A，CICCOLELLA M，MASSAROTTI N，et al. Models for thermo-fluid dynamic phenomena in low enthalpy geothermal energy systems：A review[J]. Renewable and Sustainable Energy Reviews，2016，60：330–355.
[31] ZHANG F Z，JIANG P X，XU R N. System thermodynamic performance comparison of CO2-EGS and water-EGS systems[J]. Applied Thermal Engineering，2013，61(2)：236–244.
[32] ZHANG X X，HE M G，ZHANG Y. A review of research on the Kalina cycle[J]. Renewable and Sustainable Energy Reviews，2012，16：5 309–5 318.
[33] RODRÍGUEZ C E C，PALACIO J C E，VENTURINI O J，et al. Exegetic and economic comparison of ORC and Kalina cycle for low temperature enhanced geothermal system in Brazil[J]. Applied Thermal Engineering，2013，52：109–119.
[34] 陈志恒. 美国“页岩气革命”的水环境影响及其监管[J]. 环境保护，2013，41(13)：69–71.(CHEN Zhiheng. The water environmental impact of the“shale gas revolution”in the United States and its regulation[J]. Environmental Protection，2013，41(13)：69–71.(in Chinese))
[35] ZOGORSKI J，CARTER J，IVAHNENKO T，et al. Volatile organic compounds in the nation's drinking-water supply wells[M]. [S. l.]：United States Geological Survey Circular，2006：101.
[36] 谢和平，高明忠，张茹，等. 地下生态城市与深地生态圈战略构想及其关键技术展望[J]. 岩石力学与工程学报，2017，36(6)：1 301–1 313.(XIE Heping，GAO Mingzhong，ZHANG Ru，et al. The subversive idea and its key technical prospect on underground ecological city and ecosystem[J]. Chinese Journal of Rock Mechanics and Engineering，2017，36(6)：1 301–1 313.(in Chinese))
[37] 谢和平. 创新低碳技术推进城市绿色发展[J]. 中国城市经济，2011，(10)：21–22.(XIE Heping. Innovation of low carbon technology to promote urban green development[J]. China Urban Economy，2011，(10)：21–22.(in Chinese))
[38] 特金M，范莎莎，黄守宣. 加拿大首座具有地下下库的抽水蓄能电站[J]. 水利水电快报，2012，33(3)：4–7.(TEKIN M，FAN Shasha，HUANG Shouxuan. The first pumped storage power station with underground storage in Canada[J]. Express water resources and hydropower information，2012，33(3)：4–7.(in Chinese))
[39] ANAGNOSTOPOULOS J S，PAPANTONIS D E. Pumping station design for a pumped-storage wind-hydro power plant[J]. Energy Conversion and Management，2007，48(11)：3 009–3 017.
[40] DEANE J P，GALLACHÓIR B P Ó，MCKEOGH E J. Techno-economic review of existing and new pumped hydro energy storage plant[J]. Renewable and Sustainable Energy Reviews，2010，14(4)：1 293–1 302.
[41] 谢和平，高明忠，高峰，等. 关停矿井转型升级战略构想与关键技术[J]. 煤炭学报，2017，42(6)：1 355–1 365.(XIE Heping，GAO Mingzhong，GAO Feng，et al. Strategic conceptualization and key technology for the transformation and upgrading of shutdown coal mines[J]. Journal of China Coal Society，2017，42(6)：1 355– 1 365.(in Chinese))