Research progress on the protection and utilization technology of water resources for coal mining in China

Dazhao Gu, Yong Zhang, Zhiguo Cao

Article ID: 1559
Vol 4, Issue 2, 2021

VIEWS - 1143 (Abstract) 354 (pdf)

Abstract


Water shortage is a global problem, and China is one of the most water-scarce countries in the world. The reverse distribution of coal resources and water resources has made the protection and utilization of water resources for coal mining in China a major technical problem for the green development of coal. Western China has become the main coal-producing area, but the ecological environment in the region is fragile, the evaporation of water resources is large, and the evaporation loss after mine water discharge is the main reason for the current annual loss of 6 billion tons of mine water in coal mining in China. The technical progress and engineering application characteristics of the protection and utilization of water resources in coal mining are systematically analyzed. After nearly 20 years of technical exploration and engineering practice, Shenhua Group broke through the traditional concept, put forward the technical concept of mine water storage in the goaf for the first time, overcome the technical problems such as water source prediction, reservoir site selection, reservoir capacity calculation, dam construction, safety control and water quality assurance, and built a technical system for underground coal mine reservoirs. This technology has been fully implemented in the Shendong mining area, and will be promoted and applied in other mining areas in the western region, opening up an effective technical way for the protection and utilization of coal mining water resources.


Keywords


Coal Mining; Conservation and Utilization of Water Resources; Mine Water Storage in Goafs; Underground Coal Reservoirs

Full Text:

pdf


References


1. BP Corporation. BP world energy statistics yearbook 2015. London: BP Company, 2015.

2. WWAP (United Nations World Water Assessment Program). United Nations world water development report 2014—Water and energy. Paris: UNESCO; 2014.

3. Speidel DH, Agnew AF. The natural geochemistry of our environment. Colo.: Westview Press; 1982.

4. Gleick PH. Water in crisis: A guide to the world’s fresh water resources. New York: Oxford University Press; 1993.

5. ICA. Global water security: Intelligence community assessment. Washington DC: ICA; 2012.

6. UNU. “Water security”: Experts propose a UN definition on which much depends. Dresden: United Nations University; 2013.

7. World Health Organization (WHO). Safer water, better health: Cost, benefits and sustainability of interventions to protect and promote health. Geneva: WHO; 2008.

8. UN Water. Tackling a global crisis: International year of sanitation. Paris: UN Water; 2008.

9. Oki T, Kanae S. Global hydrological cycles and world water resources. Science 2006; 313(5790): 1068–1072.

10. Wallace JS. Increasing agricultural water use efficiency to meet future food production. Agriculture, Ecosystems & Environment 2000; 82(1/3): 105–119.

11. Ministry of Water Resources of the People’s Republic of China. China Water Resources Bulletin 2014. 1 Aug 2015.

12. Qian Z, Zhang G. Zhongguo kechixu fazhan shuiziyuan zhanlue yanjiu zonghe baozgao ji ge zhuanti baogao (Chinese) [Comprehensive report on the research of water resource strategy of sustainable development of China and various special reports]. Beijing: China Water & Power Press; 2001.

13. Li J, Wang J, Yan Y. Current situation of water security and analysis of major problem in China. China Water Resources 2011; (23): 42–51.

14. Song Xi, Shi P, Jin R. Analysis on the contradiction between supply and demand of water resources in China owing to uneven regional distribution. Arid Zone Research 2005; 22(2): 162–166.

15. Shen P, Shao D, Guo Y. The present situation and prospect cross-basins diversion projects construction at home and abroad. Journal of Wuhan University of Hydraulic and Electric Engineering 1995; 28(5): 463–469.

16. Tian S, Shang G, Tang X. Chinese coal resource octothorpe shaped distributing pattern: Regional differentiation and resources economic geographical division. Coal Geology of China 2006; 18(3): 1–5.

17. Peng S. Meitan ziyuan yu shui ziyuan–Zhongguo meitan qingjie gaoxiao kechixu kaifa liyong de zhanlüe yanjiu (Chinese) [Coal resources and water resources–Research on the strategy of clean, efficient and sustainable development and utilization of coal in China]. Volume 1. Beijing: Science Press; 2014.

18. Xie K. Zhongguo meitan qingjie gaoxiao kechixu kaifa liyong de zhanlüe yanjiu (Chinese) [Research on the strategy of clean, efficient and sustainable development and utilization of coal in China]. Beijing: Science Press; 2014.

19. Xie H, Wang J. Zhongguo meitan kexue channeng (Chinese) [China’s coal science capacity]. Beijing: Coal Industry Press; 2014.

20. Institute of Geographic Sciences and Natural Resources Research, CAS. Shishui zhi mei: Meidian jidi kaifa he shuiziyuan yanjiu (Chinese) [Water-eating coal: Development of coal power base and research on water resources]. Beijing: China Environmental Science Press; 2012.

21. National Energy Administration. Guanyu guojia nengyuan anquan qingkuang de huibao (zhengqiu yijian gao) (Chinese) [Report on national energy security (draft for solicitation of comments)]. Beijing: National Energy Administration; 2014.

22. Central Committee of the Communist Party of China, State Council. Guanyu jiakuai tuijin shengtai wenming jianshe de yijian (Chinese) [Opinions on accelerating the construction of ecological civilization]. Beijing CPC Central Committee; 2015.

23. State Council. Shui wuran fangzhi xingdong jihua (shui shi tiao) (Chinese) [Water pollution prevention and control action plan (Water Ten Articles)]. Beijing: State Council; 2015.

24. National Energy Administration. Meitan qingjie liyong xingdong jihua (2015–2020) (Chinese) [Action plan for clean and efficient utilization of coal (2015–2020)]. Beijing: National Energy Administration; 2015.

25. National Energy Administration, Ministry of Environmental Protection and Ministry of Industry and Information Technology. Cujin meitan anquan lüse kaifa he qingjie gaoxiao liyong de yijian (Chinese) [Opinions on promoting safety, green development and clean and efficient utilization of coal]. Beijing: National Energy Administration, Ministry of Environmental Protection and Ministry of Industry and Information Technology; 2014.

26. State council. Nengyuan fazhan zhanlüe xingdong jihua (Chinese) [Strategic action plan energy development (2014–2020)]. Beijing: State council; 2014.

27. National Development and Reform Commission. Meitan gongye fazhan shierwu guihua (Chinese) [The 12th Five-Year Plan for the development of coal industry]. Beijing: National Development and Reform Commission; 2012.

28. State Council. Guanyu shixing zuiyange shuiziyuan guanli zhidu de yijian (Chinese) [Opinions on the implementation of the strictest water resources management system]. Beijing: State Council; 2012.

29. Standing Committee of the National People’s Congress. Zhonghua renmin gongheguo huanjing baohufa (Chinese) [Environmental Protection Law of the People’s Republic of China]. Beijing: Standing Committee of the National People’s Congress; 2015.

30. Qian M, Miao X, Xu J. Green mining of coal resources harmonizing with environment. Journal of China Coal Society 2007; 32(1): 1–7.

31. Qian M. On sustainable coal mining in China. Journal of China Coal Society 2010; 35(4): 529–534.

32. Qian M. Coal production capacity expansion caused environmental concerns in the Midwest. Resources, Environment and Development 2011; (4): 4–7, 35.

33. Li L, Tang C, Liang Z. Investigation on overburden strata collapse around coal face considering effect of broken expansion of rock. Rock and Soil Mechanics 2010; 31(11): 3537–3541.

34. Zheng J. Overburden movement law of similarity simulation test study. Coal Science 2011; (1): 6–8.

35. Miao X, Chen R, Pu H, et al. Analysis of breakage and collapse of thick key strata around coal face. Chinese Journal of Rock Mechanics and Engineering 2005; 24 (8): 1289–1295.

36. Gu D; Zhang J. Modern coal mining affected to underground water deposit environment in West China Mining Area. Coal Science and Technology 2012; 40(12): 114–117.

37. Wang L, Wang Z, Huang J, et al. Prediction on the height of water-flowing fractured zone for shallow seam covered with thin bedrock and thick windblown sands. Journal of Mining & Safety Engineering 2012; 29(5): 607–612.

38. Xu J, Zhu W, Wang X. New method to predict the height of fractured water-conducting zone by location of key strata. Journal of China Coal Society 2012; 37(5): 762–769.

39. Zhang J, Hou Z. Study on three straps in water resources preservation in Yu-shu-wan shallow seam mining. Journal of Hunan University of Science and Technology (Natural Science Edition) 2006; 21(4): 10–13.

40. Hu X, Li W, Cao D, et al. Index of multiple factors and expected height of fully mechanized water flowing fractured zone. Journal of China Coal Society 2012; 37(4): 613–620.

41. Miao X, Sun Y, Pu H, et al. Ganhan banganhan kuangqu baoshui caimei fangfa yu shijian (Chinese) [Methods and practices of water conservation and coal mining in arid and semi-arid mining areas]. Xuzhou: China University of Mining and Technology Press; 2011.

42. Miao X, Wang A, Sun Y, et al. Research on basic theory of mining with water resources protection and its application to arid and semi-arid mining areas. Chinese Journal of Rock Mechanics and Engineering 2009; 28(2): 217–227.

43. Bai H, Miao X. Research progress and major problems of water preserved coal mining. Journal of Mining & Safety Engineering 2009; 26(3): 253–262.

44. Fan L. Discussion on coal mining under water-containing condition. Coal Geology & Exploration 2005; 33(5): 50–53.

45. Huang Q. Impermeability of overburden rock shallow buried coal seam and classification of water conservation mining. Chinese Journal of Rock Mechanics and Engineering 2010; 29(S2): 3622–3627.

46. Li W, Ye G, Zhang L, et al. Study on the engineering geological conditions of protected water resources during coal mining action in Yu-Shen-Fu Mining Area in the North Shaanxi Province. Journal of China Coal Society 2000; 25(5): 449–454.

47. Shi B, Hou Z. Research on coal mining method with water conservation in Yushen Mining Area. Coal Engineering 2006; (1): 63–65.

48. Wang S, Fan L, Huang Q, et al. The partition of coal mining conditions in northern Shaanxi based on the ecological water level protection. Mining Safety & Environmental Protection 2010; 37(3): 81–83.

49. Peng X, Cui X, Li C, et al. Design and practice of room & pillar water-preserved mining for shallowly buried coal seam in north of Shaanxi Province. Journal of Mining & Safety Engineering 2008; 25(3): 301–304.

50. Liu Y, Shi P, Zhang Z. Technique parameters analysis of strip mining without destroying water resource in low burying coal seam. Coal Mining Technology 2006 11(6): 6–10.

51. Gu D. Water resource and surface ecology protection technology of modern coal mining in China’s energy “Golden Triangle”. Engineering Sciences 2013; 15(4): 102–107.

52. Cao Z, Li Q, Dong B. Water resource protection and utilization technology and application of coal mining in Shendong Mining Area. Coal Engineering 2014; 46(10): 162–164, 168.

53. Gu D. Theory framework and technological system of coal mine underground reservoir. Journal of China Coal Society 2015; 40(2): 239–246.

54. Cao Z, He R, Wang X. Coal mining affected to underground water and underground water storage and utilization technology. Coal Science and Technology 2014; 42(12): 113–116, 128.




DOI: https://doi.org/10.24294/nrcr.v4i2.1559

Refbacks

  • There are currently no refbacks.


Copyright (c) 2021 Dazhao Gu, Yong Zhang, Zhiguo Cao

Creative Commons License
This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License.

This site is licensed under a Creative Commons Attribution 4.0 International License.