태양광 시범지구에서 토양ㆍ수질 변화 및 물 절감 효과 분석
Analysis of SoilㆍWater Quality Changes and Water Saving Effects in Solar Power Pilot District
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초록
This study analyzed the effects of insolation on evaporation and the hazards to soil and water quality in the Buan testbed. For monitoring, weather observation equipment ZL6 and a pressure water level gauge were installed in the target district to investigate the evaporation and soil and water quality samples during the rainy season were collected by season for environmental impact assessment. As a result of the Buan testbed soil environmental impact assessment, the change in the content of hazardous components in the testbed soil heavy metals was found to be lower than the soil pollution concern standards and countermeasure standards, and the water quality environmental impact assessment result showed that the impact on the water quality environment was small. It was found that the insolation inside the solar power plant was affected by 37.11 to 85.83% of the insolation outside the solar power plant, with an average of 58.67% of the insolation and the amount of water saved inside the solar power plant was reduced to 45.61%. In order to select the optimal effect in the future, it is judged that analysis will be necessary according to the panel size for each solar type after installation in the test demonstration complex.
Abstract
This study analyzed the effects of insolation on evaporation and the hazards to soil and water quality in the Buan testbed. For monitoring, weather observation equipment ZL6 and a pressure water level gauge were installed in the target district to investigate the evaporation and soil and water quality samples during the rainy season were collected by season for environmental impact assessment. As a result of the Buan testbed soil environmental impact assessment, the change in the content of hazardous components in the testbed soil heavy metals was found to be lower than the soil pollution concern standards and countermeasure standards, and the water quality environmental impact assessment result showed that the impact on the water quality environment was small. It was found that the insolation inside the solar power plant was affected by 37.11 to 85.83% of the insolation outside the solar power plant, with an average of 58.67% of the insolation and the amount of water saved inside the solar power plant was reduced to 45.61%. In order to select the optimal effect in the future, it is judged that analysis will be necessary according to the panel size for each solar type after installation in the test demonstration complex.
참고문헌 (21)
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