Influence of carbonized crop residue on soil carbon storage in red pepper field
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Background: Because of climate change, interest in the development of carbon pools has increased. In agricultural ecosystems, which can be more intensively managed than forests, measures to control carbon dioxide (CO2) emission and absorption levels can be applied relatively easily. However, crop residues may be released into the atmosphere by decomposition or combustion. If we can develop scientific management techniques that enable these residues to be stocked on farmland, then it would be possible to convert farmlands from carbon emission sources to carbon pools. We analyzed and investigated soil respiration (Rs) rate characteristics according to input of carbonized residue of red peppers (Capsicum annuum L.), a widely grown crop in Korea, as a technique for increasing farmland carbon stock. Results: Rs rate in the carbonized biomass (CB) section was 226.7 mg CO2 m− 2 h− l, which was 18.1% lower than the 276.9 mg CO2 m− 2 h− l from the red pepper residue biomass (RB) section. The Rs rate of the control was 184.1 mg CO2 m− 2 h− l. In the following year, Rs in the CB section was 204.0 mg CO2 m− 2 h− l, which was 38.2% lower than the 330. 1 mg CO2 m− 2 h− l from the RB section; the control emitted 198.6 mg CO2 m− 2 h− l. Correlation between Rs and soil temperature ((Ts) at a depth of 5 cm) was R2 = 0.51 in the RB section, which was higher than the other experimental sections. A comparison of annual decomposition rates between RB and CB showed a large difference, 41.4 and 9.7%, respectively. The results showed that carbonization of red pepper residues reduced the rates of decomposition and Rs. Conclusions: The present study confirmed that the Rs rate can be reduced by carbonization of residue biomass and putting it in the soil and that the Rs rate and Ts (5 cm) were positively correlated. Based on the results, it was determined that approximately 1.2 t C ha− 1 were sequestered in the soil in the first year and 3.0 t C ha− 1 were stored the following year. Therefore, approximately 1.5 t C ha− 1 year− 1 are expected to be stocked in the soil, making it possible to develop farmlands into carbon pools.
Abstract
Background: Because of climate change, interest in the development of carbon pools has increased. In agricultural ecosystems, which can be more intensively managed than forests, measures to control carbon dioxide (CO2) emission and absorption levels can be applied relatively easily. However, crop residues may be released into the atmosphere by decomposition or combustion. If we can develop scientific management techniques that enable these residues to be stocked on farmland, then it would be possible to convert farmlands from carbon emission sources to carbon pools. We analyzed and investigated soil respiration (Rs) rate characteristics according to input of carbonized residue of red peppers (Capsicum annuum L.), a widely grown crop in Korea, as a technique for increasing farmland carbon stock. Results: Rs rate in the carbonized biomass (CB) section was 226.7 mg CO2 m− 2 h− l, which was 18.1% lower than the 276.9 mg CO2 m− 2 h− l from the red pepper residue biomass (RB) section. The Rs rate of the control was 184.1 mg CO2 m− 2 h− l. In the following year, Rs in the CB section was 204.0 mg CO2 m− 2 h− l, which was 38.2% lower than the 330. 1 mg CO2 m− 2 h− l from the RB section; the control emitted 198.6 mg CO2 m− 2 h− l. Correlation between Rs and soil temperature ((Ts) at a depth of 5 cm) was R2 = 0.51 in the RB section, which was higher than the other experimental sections. A comparison of annual decomposition rates between RB and CB showed a large difference, 41.4 and 9.7%, respectively. The results showed that carbonization of red pepper residues reduced the rates of decomposition and Rs. Conclusions: The present study confirmed that the Rs rate can be reduced by carbonization of residue biomass and putting it in the soil and that the Rs rate and Ts (5 cm) were positively correlated. Based on the results, it was determined that approximately 1.2 t C ha− 1 were sequestered in the soil in the first year and 3.0 t C ha− 1 were stored the following year. Therefore, approximately 1.5 t C ha− 1 year− 1 are expected to be stocked in the soil, making it possible to develop farmlands into carbon pools.
참고문헌 (47)
- Agren, G. L., "Stateof-the-art of model of production-decomposition linkage in conifer and grassland ecosystems", Ecological Applications, 1, pp.49~53 (1991)
- Boone, R. D., "Roots exert a strong influence on the temperature sensitivity of soil respiration", Nature, 396, pp.570~572 (1998)
- Buchmann, N., "Biotic and abiotic factors controlling soil respiration rates in Picea abies stands", Soil Biology & Biochemistry, 32, pp.1625~1635 (2000)
- Campbell, C. A., "Carbon storage in soils of the North American Great Plains. Effect of cropping frequency", Agronim J, 97, pp.349~363 (2005)
- 채남이, "식물 환경 조절 시스템에서의 토양 호흡 관측 챔버법의 비교 실험", 한국농림기상학회지, 7(1), pp.107~114 (2005), 한국농림기상학회
- Chapman, S. B., "Some interrelationships between soil and root respiration in lowland Calluna heathland in Southern England", Ecology, 67, pp.1~20 (1979)
- Cristner, L. G., "Molecular sieve character of carbons derived from celluosic precusors", Carbon, 31, pp.1149~1158 (1993)
- Curtin, D., "Tillage effects on carbon fluxes in continuous wheat and fallow-wheat rotations", Soil Science Social American Journal, 64, pp.2080~2086 (2000)
- Davidson, E. A., "Soil water content and temperature as independent or confounded factors controlling soil respiration in a temperature mixed hardwood forest", Global Change Biology, 4, pp.217~227 (1998)
- Davidson, E. A., "Minimizing artifacts and biases in chamber-based measurements of soil respiration", Agricultural and Forest Meteorology, 113, pp.21~37 (2002)
- Duxbury, J. M., "Soil management and greenhouse effect", pp.279~291 (1995), Lewis Publ
- Fang, C., "The dependence of soil CO2 efflux on temperature", Soil Biology & Biochemistry, 33, pp.155~165 (2001)
- Glover, J. D., "Systematic method for rating soil quality of conventional, organic and integrated apple orchards in Washington State", Agricultural Ecosystem Environment, 80, pp.29~45 (2000)
- Gregorich, E. G., "Greenhouse gas contributions of agricultural soils and potential mitigation practices in Eastern Canada", Soil & Tillage Research, 83, pp.53~72 (2005)
- IPCC (Intergovernmental Panel on Climate Change), "Climate change 2001:The scientific basis. Contribution of Working Group 1 to the Third Assessment Report" (2001), Cambridge University Press
- Jastrow, J. D., "Mechanisms controlling soil carbon turnover and their potential application for enhancing carbon sequestration", Climatic Change, 80, pp.5~23 (2007)
- Kapkiyai, J. J., "Soil organic matter and nutrient dynamics in a Kenyan nitisol under longterm fertilizer and organic input management", Soil & Biochemistry, 31(13), pp.1773~1782 (1999)
- Koizumi, H., "Soil respiration in three soil types in agricultural ecosystems in Finland", Soil and Plant Science, 49, pp.65~74 (1999)
- 공학양, "강우에 의한 토양호흡 배출 특성이 연간 토양호흡 배출량에 미치는 영향 연구", 한국기후변화학회지, 7(4), pp.397~405 (2016), 한국기후변화학회[DOI]
- "Crop production statistics" (2005)[URL]
- "Crop production statistics" (2015)[URL]
- Kucera, C. L., "Soil respiration studies in tall grass prairie in Missouri", Ecology, 52, pp.912~915 (1971)
- Laird, D., "Biochar impact on nutrient leaching from a Midwestern agricultural soil", Geoderma, 158(3), pp.436~442 (2010)
- 이은혜, "토양호흡의 측정과 국내 연구 현황에 대한 고찰", 한국농림기상학회지, 12(4), pp.264~276 (2010), 한국농림기상학회
- 이재호, "생태계 탄소순환 이해를 위한 국내 토양호흡 연구의 고찰", 생태와 환경, 46(2), pp.310~318 (2013), 한국하천호수학회
- 이경숙, "수질 환경을 고려한 농경지 토양 탄소 관리 방안", 환경영향평가, 22(1), pp.1~17 (2013), 한국환경영향평가학회
- Lee, M., "Seasonal changes in the contribution of root respiration to total soil respiration in a cool-temperature deciduous forest", Plant and Soil, 25, pp.311~318 (2003)
- 조태수, "탄화온도에 따른 목탄 특성 및 표면의 FT-IR 변화*1", 목재공학, 35(4), pp.21~28 (2007), 한국목재공학회
- 이선일, "배 과수원에서 전정가지 유래 탄화물 시용이 토양 탄소 축적에 미치는 영향", 한국환경농학회지, 35(3), pp.159~165 (2016), 한국환경농학회[DOI]
- Lehmann, J., "Bio-char sequestration in terrestrial ecosystems—a review", Mitigation and Adaptation Strategies for Global Change, 11, pp.403~427 (2006)
- Liu, X., "Response of soil CO2 efflux to water manipulation in a tallgrass prairie ecosystem", Plant and Soil, 240, pp.213~223 (2002)
- Liu, X., "Biochar has no effect on soil respiration across Chinese agricultural soils", Sci of the Total Env, pp.259~265 (2016)
- Luo, Z. K., "Can no-tillage stimulate carbon sequestration in agricultural soils? A meta-analysis of paired experiments", Agriculture, Ecosystems and Environment, 139, pp.224~231 (2010)
- Nakane, K., "Estimation of root respiration rate in a mature forest ecosystem", Japan Journal Ecological, 33, pp.397~408 (1983)
- NIAST, "Methods of soil chemical analysis" (1988), National Institute of Agricultural Science and Technology, RDA
- Pan, Z., "Effect of various stocking rates on grassland soil respiration during the non-growing season", Acta Ecologica Sinica, 36, pp.411~416 (2015)
- Post, W. M., "Soil carbon sequestration and land-use change : processed and potential", Global Change Biology, 6, pp.317~328 (2000)
- Pyo, J., "A study on the carbon budget in Pinus koreansis plantation", Korean Journal Ecological, 26, pp.129~134 (2003)
- RDA, "Fertilizer recommendation for crops", ~ (1999)
- Suh, S. U., "A chamber system with automatic opening and closing for continuously measuring soil respiration based on an open-flow dynamic method", Ecological Research, 21(3), pp.405~414 (2006)
- Tian, S., "Crop yield and soil carbon responses to tillage method changes in North China", Soil & Tillage Research, 163, pp.207~213 (2016)
- "The Marrakech Accords and the Marrakech Declaration" (2001)[URL]
- Verma, S. B., "Annual carbon dioxide exchange in irrigated and rainfed maize-based agroecosystems", Agricultural and Forest Meteorology, 131, pp.77~96 (2005)
- Wang, W., "Soil respiration and organic carbon dynamics with grassland conversions to woodland in temperate China", PLoS One, 8, pp.1~10 (2013)
- Waring, R. H., "Forest Ecosystems: Analysis at Multiple. Scales" (1998), Academic Press
- Xu, M., "Soil-surface CO2 efflux and its spatial and temporal variations in a young ponderosa pine plantation in northern California", Global Change Biology, 7, pp.667~677 (2001)
- 유가영, "목초재배지 및 벼논 관리 변화에 따른 토양 탄소 및 미생물 활성도", 한국토양비료학회지(Korean Journal of Soil Science and Fertilizer), 45(3), pp.435~443 (2012), 한국토양비료학회[DOI]