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Effects and Improvement of Carbon Reduction by Greenspace Establishment in Riparian Zones
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 Title & Authors
Effects and Improvement of Carbon Reduction by Greenspace Establishment in Riparian Zones
Jo, Hyun-Kil; Park, Hye-Mi;
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 Abstract
This study quantified storage and annual uptake of carbon for riparian greenspaces established in watersheds of four major rivers in South Korea and explored desirable strategies to improve carbon reduction effects of riparian greenspaces. Greenspace structure and planting technique in the 40 study sites sampled were represented by single-layered planting of small trees in low density, with stem diameter at breast height of and planting density of on average. Storage and annual uptake of carbon per unit area by planted trees averaged and , respectively, increasing as planting density got higher. Mean organic matter and carbon storage in soils were and , respectively. Planted trees and soils per ha stored the amount of carbon emitted from gasoline consumption of about 61 kL, and the trees per ha annually offset carbon emissions from gasoline use of about 3 kL. These carbon reduction effects are associated with tree growth over five years to fewer than 10 years after planting, and predicted to become much greater as the planted trees grow. This study simulated changes in annual carbon uptake by tree growth over future 30 years for typical planting models selected as different from the planting technique in the study sites. The simulation revealed that cumulative annual carbon uptake for a multilayered and grouped ecological planting model with both larger tree size and higher planting density was approximately 1.9 times greater 10 years after planting and 1.5 times greater 30 years after than that in the study sites. Strategies to improve carbon reduction effects of riparian greenspaces suggest multilayered and grouped planting mixed with relatively large trees, middle/high density planting of native species mixed with fast-growing trees, and securing the soil environment favorable for normal growth of planting tree species. The research findings are expected to be useful as practical guidelines to improve the role of a carbon uptake source, in addition to water quality conservation and wildlife inhabitation, in implementing riparian greenspace projects under the beginning stage.
 Keywords
Carbon Storage;Carbon Uptake;Greenspace Structure;Planting Technique;
 Language
Korean
 Cited by
1.
수변구역 조성 녹지의 모니터링을 통한 식재방안 모색 - 가평군 시공지를 대상으로 -,조현길;박혜미;

Journal of Environmental Science International, 2016. vol.25. 12, pp.1689-1699 crossref(new window)
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