청정에너지농업시스템 개발에 따른 실증단지의 온실가스배출량 분석
Analysis of Greenhouse Gas Emission associated with Clean Energy Agriculture System Development
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This study presents detailed emission of greenhouse gases of using Clean Energy Agriculture System according to a cradle-to-gate life-cycle assessment, including emission from energy use and leak of Biogas. Calculations were done with the PASS software and the covered gases are CH4, N2O and CO2, Total GHG fluxes of amount to 1719.03 kgCO2/day, 39.63 kgCO2/day (2.31%) are from facility house process, 0.19 kgCO2/day (0.01%) are from transport process, 696.72 kgCO2/day (40.53%) are from Anaerobic digestion process, 846.61 kgCO2/day (49.25%) are from Heating and cooling system, 135.88 kgCO2/day (7.90%) are from Fertigation production process. The results suggest that for effective reduction of GHG emissions from Facility house using clean energy. Reduction targets should address both the production process as defined by IPCC sectors and the consumption process. An LCA assessment as presented here could be a basis for such efforts.
Abstract
This study presents detailed emission of greenhouse gases of using Clean Energy Agriculture System according to a cradle-to-gate life-cycle assessment, including emission from energy use and leak of Biogas. Calculations were done with the PASS software and the covered gases are CH4, N2O and CO2, Total GHG fluxes of amount to 1719.03 kgCO2/day, 39.63 kgCO2/day (2.31%) are from facility house process, 0.19 kgCO2/day (0.01%) are from transport process, 696.72 kgCO2/day (40.53%) are from Anaerobic digestion process, 846.61 kgCO2/day (49.25%) are from Heating and cooling system, 135.88 kgCO2/day (7.90%) are from Fertigation production process. The results suggest that for effective reduction of GHG emissions from Facility house using clean energy. Reduction targets should address both the production process as defined by IPCC sectors and the consumption process. An LCA assessment as presented here could be a basis for such efforts.
참고문헌 (11)
- 신중두, "시비방법별 벼 재배에 따른 전과정평가 방법을 적용한 환경영향 평가", 한국환경농학회지, 22(1), pp.6~46 (2003), 한국환경농학회
- Kramer, K. J, "Greenhouse Gas Emissions Related to Dutch Food Consumption", Energy Policy, 27, pp.203~216 (1999)
- Nonhebel, S, "On Resource Use in Food Production Systems : the Value of Livestock as ‘Rest-stream Upgrading System’", Ecological Economics, 48, pp.221~230 (2004)
- Heo, B. D, "Practical Application of Bio-Gas Using Technology through Integration Digestion of Food", Livestock Waste, 2002, pp.10(1), 46~51
- Murphy, J. D, "Technical", Economic, Appl. Energ, pp.2004, 77(4)[DOI]
- 김선영, "한국에서 기온상승이 사과 재배지역의 변화에 미치는 영향", 한국지역지리학회지, 16(3), pp.201~215 (2010), 한국지역지리학회
- 남재작, "전과정평가 방법을 이용한 가축분뇨", 음식폐기물 통합 소화형 바이오가스 시설의 온실가스 배출량 평가, 2008, pp.27(4), 406~412[DOI]
- Hwang, M. S, "A study on the Bio-Gas Desulfurization System and Bio Upgrading", 박사, pp.2014
- Fukumoto, Y, "Patterns and Quantities of NH3, N2O and CH4 Emissions during Swine Manure Composting without Forced Aeration-effect of Compost Pile Scale", Bioresource Technol, 89(2), pp.109~114 (2003)
- Amlingerm, F, "Greenhouse Gas Emissions from Composting and Mechanical Biological Treatment", Waste Manage, 26(1), pp.47~60 (2008)
- Establishment of Clean Energy Farming System Using the Agricultural Waste Biomass Report, "MAFRA", ~ (2015)
