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http://dx.doi.org/10.5855/ENERGY.2018.27.1.021

Global technologies for the removal of water scaling & water recovery - Department of Energy (DOE) USA  

Ramakrishna, Chilakala (Department of Research and Development Team, Hanil Cement Co ltd.)
Thriveni, Thenepalli (Department of Research and Development Team, Hanil Cement Co ltd.)
Whan, Ahn Ji (Carbon Mineralization Center, Korea Institute of Geosciences and Mineral Resources (KIGAM))
Publication Information
Abstract
In this paper, we reported the current technologies of water scaling removal and also water recovery from the flue gases, which are funded by Department of Energy (DOE), USA. Globally, water resources are limited due to the climate change. The potential impacts of climate change is food and water shortages. In the $21^{st}$ century, water shortages and pollution are expected to become more acute as populations grow and concentrate in cities. At present, the water stress increases over 62.0 ~ 75.8% of total water basin area and decreases over 19.7 ~ 29.0%. Many renewable energy sources demand secure water resources. Water is critical for successful climate change mitigation, as many efforts to reduce greenhouse gas emissions depend on reliable access to water resources. Water hardness is one of the major challenge to coal power plants. Department of energy (DOE) funded and encouraged for the development of advanced technologies for the removal of hardness of water (scaling) and also water recovery from the flue gases from coal power plants.
Keywords
Water scaling; water recovery; coal-fired power plant; Waste water;
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  • Reference
1 Y. Cho, A. Fridman, and A. Gutsol. Application of pulsed electrical fields for advanced cooling in coal-fired power plant., June 2009, DOE Award No: DE-FC26-06NT42724.
2 David A. Dzombak, Radisav D. Vidic and Amy E. Landis. Use of Treated Municipal Wastewater as Power Plant Cooling System Makeup Water: Tertiary Treatment versus Expanded Chemical Regimen for Recirculating Water Quality Management, September 2012, DE-NT0006550.
3 Hsieh, M.K.; Dzombak, D.A.; Vidic, R.D., 2010, Bridging Gravimetric and Electrochemical Approaches to Determine the Corrosion Rate of Metals and Metal Alloys in Cooling Systems: Bench Scale Evaluation Method, Ind. Eng. Chem. Res., 49(19): 9117-9123.   DOI
4 National Mine Land Reclamation Center, West Virginia University. Development and Demonstration of a Modeling Framework for Assessing the Efficacy of Using Mine Water for Thermoelectric Power Generation., June 2010, DE-FC26-06NT42723
5 Nuclear Energy Agency (NEA); Nuclear Energy Today, Nuclear Development, Second Edition, 2012, ISBN 978-92-64-99204-7, 1-123.
6 Hach company, Application note, Steam generation in power plants, 2014, 1-9.
7 Jared Ciferno, Water and Energy: Integrated challenges, integrated solutions, Ground water protection council, September 2009, 1-21.
8 Jasbir S. Gill, A Synergistic Combination of Advanced Separation and Chemical Scale Inhibitor Technologies for Efficient Use of Impaired Water As Cooling Water in Coal-based Power Plants, December 2010, DOE Award Number: DE-FC26-06NT42721.
9 Schecher, W. D. & McAvoy, D. C., 1992, MINEQL+: a software environment for chemical equilibrium modeling. Computers, Environment and Urban Systems, 16(1): 65-76.   DOI
10 Schecher, W. D. & McAvoy, D. C., 1999, MINEQL+ chemical equilibrium modeling system, version 4 for Windows. Environmental Research Software, Hallowell, ME.
11 Radisav D. Vidic and David A. Dzombak. Reuse of Treated Internal or External Wastewaters in the Cooling Systems of CoalBased Thermoelectric Power Plants., September 2009, DE-FC26-06NT42722.