The changing virtual water trade network of the European electric grid

被引:32
作者
Chini, Christopher M. [1 ]
Stillwell, Ashlynn S. [2 ]
机构
[1] Air Force Inst Technol, Dept Syst Engn & Management, 2950 Hobson Way, Wright Patterson AFB, OH 45433 USA
[2] Univ Illinois, Dept Civil & Environm Engn, 205 N Mathews Ave, Urbana, IL 61801 USA
关键词
Virtual water; Energy-water nexus; Virtual water trade; Energy policy; ENERGY-FOOD NEXUS; FOOTPRINT; CONSUMPTION; GENERATION; TRANSMISSION; BLUE; UK; CONSEQUENCES; PERSPECTIVE; WITHDRAWAL;
D O I
10.1016/j.apenergy.2019.114151
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
In the generation of electricity, water is consumed through cooling of thermoelectric power plants and evaporation behind hydroelectric dams before flowing throughout the physical electric grid as an embedded resource. In the European electric grid, there are significant amounts of electricity resources traded between countries to balance power demands, creating a virtual water trade network. To understand the scale and burden shift of this virtual water trade, we create a resource accounting model that couples embedded water resources with international electricity trade throughout Europe at a sub-annual time-scale. Using data from the European Network of Transmission System Operators for Electricity, we identify an increase of virtual water trade from 43 million m(3) to 49 million m(3) between 2010 and 2017, with significant seasonal variation. We further contextualize these temporal variations of virtual water trade through an analysis of changing electricity policies in three countries (Italy, Great Britain, and Germany) and their subsequent effects on virtual water trade. In developing this virtual water network, we identify significant data gaps that lead to uncertainty and create challenges for decision-making, suggesting the need for a comprehensive data collection plan on the impact of energy on water resources across Europe.
引用
收藏
页数:10
相关论文
共 87 条
[51]   Probabilistic assessment of aquatic species risk from thermoelectric power plant effluent: Incorporating biology into the energy-water nexus [J].
Logan, Lauren H. ;
Stillwell, Ashlynn S. .
APPLIED ENERGY, 2018, 210 :434-450
[52]   Maintaining electric grid reliability under hydrologic drought and heat wave conditions [J].
Lubega, William Naggaga ;
Stillwell, Ashlynn S. .
APPLIED ENERGY, 2018, 210 :538-549
[53]   Molecular-Scale Investigation with ESI-FT-ICR-MS on Fractionation of Dissolved Organic Matter Induced by Adsorption on Iron Oxyhydroxides [J].
Lv, Jitao ;
Zhang, Shuzhen ;
Wang, Songshan ;
Luo, Lei ;
Cao, Dong ;
Christie, Peter .
ENVIRONMENTAL SCIENCE & TECHNOLOGY, 2016, 50 (05) :2328-2336
[54]   Operational water consumption and withdrawal factors for electricity generating technologies: a review of existing literature [J].
Macknick, J. ;
Newmark, R. ;
Heath, G. ;
Hallett, K. C. .
ENVIRONMENTAL RESEARCH LETTERS, 2012, 7 (04)
[55]   Thermal effluent from the power sector: an analysis of once-through cooling system impacts on surface water temperature [J].
Madden, N. ;
Lewis, A. ;
Davis, M. .
ENVIRONMENTAL RESEARCH LETTERS, 2013, 8 (03)
[56]   The blue water footprint of electricity from hydropower [J].
Mekonnen, M. M. ;
Hoekstra, A. Y. .
HYDROLOGY AND EARTH SYSTEM SCIENCES, 2012, 16 (01) :179-187
[57]   The green, blue and grey water footprint of crops and derived crop products [J].
Mekonnen, M. M. ;
Hoekstra, A. Y. .
HYDROLOGY AND EARTH SYSTEM SCIENCES, 2011, 15 (05) :1577-1600
[58]  
Miara A, 2017, NAT CLIM CHANGE, V7, P793, DOI [10.1038/nclimate3417, 10.1038/NCLIMATE3417]
[59]  
Mubako S., 2011, THESIS
[60]  
Newell B, 2011, ECOL SOC, V16