Drinking Water from Mine Water Using the HiPRO® Process-Optimum Coal Mine Water Reclamation Plant

被引:0
|
作者
Karakatsanis, E. [1 ]
Cogho, V. E. [1 ]
机构
[1] Keyplan Pty Ltd, Johannesburg, Gauteng, South Africa
关键词
acid mine drainage; gypsum precipitation;
D O I
暂无
中图分类号
TD [矿业工程];
学科分类号
0819 ;
摘要
Optimum Coal Mine comprises numerous defunct, active and future mining sections, whose activities have a significant impact on surface and groundwater resources. In order for the mine to dontinue with their mining'operations in the catchment, substantial measures were implemented in order to ensure the environmental integrity and economic use of the area's water resources [1]. One of these measures was the construction of the Optimum Coal Mine Water Reclamation Plant (15ML/day Product Water), which uses Keyplan's HiPRO (R) Process to actively treat the excess mine water to drinking water standard. This in-house developed technology makes use of multiple stages of Ultrafiltration and Reverse Osmosis membrane systems which produce super-saturated brine streams, from which sparingly soluble salts may be released in Precipitation Reactors. The following distinctive features of the HiPRO Process were key in its selection as the preferred technology: Large Scale Commercially Proven Sustainable Operation >98% Water Recovery High Quality Drinking Water (SANS highest standard) Minimum Waste Generation Potentially Useful By-products In addition, the HiPRO (R) Process needed to be developed further to cater for the unique attributes of the Optimum Coal Mine water as well as experience learned from previous applications. Most notably was the neutral pH of the mine water feed, which resulted in the removal of the Pretreatment Neutralisation Reactors and inclusion of Ozone for Iron and Manganese oxidation.
引用
收藏
页码:135 / 138
页数:4
相关论文
共 50 条
  • [41] Water pollution by abandoned mine sites; Acid mine drainage; Mined land reclamation (Reprinted)
    Aston, RL
    MINERAL RESOURCES ENGINEERING, 2001, 10 (02): : 235 - 243
  • [42] Mine Water for Energy and Water Supply in the Central Coal Basin of Asturias (Spain)
    Jardon, Santiago
    Ordonez, Almudena
    Alvarez, Rodrigo
    Cienfuegos, Pablo
    Loredo, Jorge
    MINE WATER AND THE ENVIRONMENT, 2013, 32 (02) : 139 - 151
  • [43] Quantitative frother analysis on coal mine process water with a benchtop NMR spectrometer
    Lee, Yejin
    Matviychuk, Yevgen
    Park, Hangil
    Wang, Liguang
    Holland, Daniel J.
    JOURNAL OF MAGNETIC RESONANCE, 2021, 331
  • [44] Water Disaster Types and Water Control Measures of Hanxing Coal Mine Area
    Xu, Chao
    Gong, Pingping
    2011 XI'AN INTERNATIONAL CONFERENCE ON FINE EXPLORATION AND CONTROL OF WATER & GAS IN COAL MINES, 2011, 3 : 343 - 348
  • [45] Using Multiple Methods to Predict Mine Water Inflow in the Pingdingshan No. 10 Coal Mine, China
    Zhang, Kai
    Cao, Bin
    Lin, Gang
    Zhao, Mingdong
    MINE WATER AND THE ENVIRONMENT, 2017, 36 (01) : 154 - 160
  • [46] Using Multiple Methods to Predict Mine Water Inflow in the Pingdingshan No. 10 Coal Mine, China
    Kai Zhang
    Bin Cao
    Gang Lin
    Mingdong Zhao
    Mine Water and the Environment, 2017, 36 : 154 - 160
  • [47] Discussion on mine water mixing purification process
    Coal Science and Technology (Peking), 1990, (10):
  • [48] Acoustic Filter for Coal Mine Water Purification.
    Yamshchikov, V.S.
    Rak, Yu.I.
    Malyshenko, V.S.
    Ugol', 1981, (08):
  • [49] Mine Water in the Closure of a Coal Basin: From Waste to Potential Resources
    Menendez, Javier
    Loredo, Jorge
    FRONTIERS IN WATER-ENERGY-NEXUS NATURE-BASED SOLUTIONS, ADVANCED TECHNOLOGIES AND BEST PRACTICES FOR ENVIRONMENTAL SUSTAINABILITY, 2020, : 301 - 304
  • [50] Quality and treatment of coal mine drainage water in China
    Guo, JG
    Shan, ZJ
    MINING SCIENCE AND TECHNOLOGY 99, 1999, : 613 - 616