Greenhouse gas emissions from two hydroelectric reservoirs in Mediterranean region

被引:0
作者
Georgios Samiotis
Giorgos Pekridis
Nikolaos Kaklidis
Eleni Trikoilidou
Nikolaos Taousanidis
Elisavet Amanatidou
机构
[1] Western Macedonia University of Applied Sciences,Environmental Engineering and Pollution Control Department
[2] University of Western Macedonia,Department of Mechanical Engineering
[3] Western Macedonia University of Applied Sciences,Mechanical Engineering Department
来源
Environmental Monitoring and Assessment | 2018年 / 190卷
关键词
Hydroelectric energy; Mediterranean Reservoir; Carbon dioxide and methane fluxes; Global warming potential; Specific emissions; Fossil fuels;
D O I
暂无
中图分类号
学科分类号
摘要
Water reservoirs are used for many purposes, such as water supply, irrigation, flood mitigation, and hydroelectric energy generation. Although hydroelectric energy is considered “green,” many studies show that the construction of a reservoir enhances greenhouse gas (GHG) emissions at the transformed area. These emissions, mainly of CO2, CH4, and N2O gases, depend on the age of the reservoir, landscape and soil composition, fauna and flora remnants of the impounded area, climatic conditions, and basin runoffs. Consequently, GHG emissions significantly vary between reservoirs and depending on local specificities. Several studies have investigated GHG emissions from reservoirs around the world, focusing mainly on reservoirs located in cold regions, temperate regions, and tropical regions. Research is lacking for reservoirs in Mediterranean countries, like Greece, and similar regions. This work initially assesses the net GHG emissions of a newly created reservoir (Ilarion est. 2012) in Western Macedonia, Greece. The methodology for net GHG emission calculation was based on the use of literature data concerning pre-impoundment emission factors and local specificities of the reservoir (terrain type, canopy cover), as well as on the 2-year measurement data that were collected using a “static floating chamber.” Furthermore, in this work, the gross GHG emissions of an older, in-line reservoir (Polyfytos est. 1974) were also calculated, based on 2-year measurement data. The results show that the global warming potential (GWP) of the reservoirs is dictated by methane emissions; it minimizes during winter and spring and maximizes during summer and autumn. Hydroelectric energy production at Ilarion Reservoir results in 32 to 97 times less total CO2 equivalent emissions in comparison to fossil fuels, while at Polyfytos Reservoir only 8 to 24 times less (based on gross emissions). It appears that the impact of a reservoir’s morphology on GHG emissions is more significant than that of a reservoir’s age.
引用
收藏
相关论文
共 50 条
[31]   Reducing the Greenhouse Gas Emissions of Commercial Print with Digital Technologies [J].
Canonico, Scott ;
Sellman, Royston ;
Preist, Chris .
2009 IEEE INTERNATIONAL SYMPOSIUM ON SUSTAINABLE SYSTEMS AND TECHNOLOGY, 2009, :312-+
[32]   Dynamics of Greenhouse Gas (GHG) Emissions in the Transportation Sector of Senegal [J].
Tchanche, Bertrand .
EARTH, 2021, 2 (01) :1-15
[33]   Rice management interventions to mitigate greenhouse gas emissions: a review [J].
Hussain, Saddam ;
Peng, Shaobing ;
Fahad, Shah ;
Khaliq, Abdul ;
Huang, Jianliang ;
Cui, Kehui ;
Nie, Lixiao .
ENVIRONMENTAL SCIENCE AND POLLUTION RESEARCH, 2015, 22 (05) :3342-3360
[34]   A global synthesis of the effects of biological invasions on greenhouse gas emissions [J].
Qiu, Jiangxiao .
GLOBAL ECOLOGY AND BIOGEOGRAPHY, 2015, 24 (11) :1351-1362
[35]   IMPACT OF AGRICULTURAL WASTE RETURN ON SOIL GREENHOUSE GAS EMISSIONS [J].
Huang, D. D. ;
Cao, G. J. ;
Geng, Y. H. ;
Wang, L. C. ;
Chen, X. W. ;
Liang, A. Z. .
APPLIED ECOLOGY AND ENVIRONMENTAL RESEARCH, 2019, 17 (01) :1321-1335
[36]   Soil greenhouse gas emissions from an animal excrement-based forage cropping system [J].
Koga, Nobuhisa ;
Ihara, Hirotaka ;
Yamane, Tsuyoshi ;
Yamaguchi, Chisato ;
Kobayashi, Sohei .
NUTRIENT CYCLING IN AGROECOSYSTEMS, 2022, 123 (03) :153-167
[37]   A guide to life-cycle greenhouse gas (GHG) emissions from electric supply technologies [J].
Weisser, Daniel .
ENERGY, 2007, 32 (09) :1543-1559
[38]   Modeling carbon cycles and estimation of greenhouse gas emissions from organic and conventional farming systems [J].
Kuestermann, Bjoern ;
Kainz, Maximilian ;
Huelsbergen, Kurt-Juergen .
RENEWABLE AGRICULTURE AND FOOD SYSTEMS, 2008, 23 (01) :38-52
[39]   Net emissions of CH4 and CO2 in Alaska:: Implications for the region's greenhouse gas budget [J].
Zhuang, Q. ;
Melillo, J. M. ;
McGuire, A. D. ;
Kicklighter, D. W. ;
Prinn, R. G. ;
Steudler, P. A. ;
Felzer, B. S. ;
Hu, S. .
ECOLOGICAL APPLICATIONS, 2007, 17 (01) :203-212
[40]   Soil greenhouse gas emissions from an animal excrement-based forage cropping system [J].
Nobuhisa Koga ;
Hirotaka Ihara ;
Tsuyoshi Yamane ;
Chisato Yamaguchi ;
Sohei Kobayashi .
Nutrient Cycling in Agroecosystems, 2022, 123 :153-167