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2021 | OriginalPaper | Chapter

CO2 Sequestration Through Phytoremediation Techniques with Special Emphasis on Urban Forestry to Mitigate Climate Change Impact

Authors : M. Govindaraju, J. Fowmitha Banu, S. Senthamil selvi, Malti Goel

Published in: Climate Change and Green Chemistry of CO2 Sequestration

Publisher: Springer Singapore

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Abstract

Concentration of carbon dioxide in the Earth’s atmosphere reached high, according to the World Meteorological Organization (WMO) Report and became parts per million in December 2018. The main causes of global warming are emission of CO2 and other Green House Gases (GHG), and it is due to anthropogenic activities. To reduce the impact, sequestrating CO2 through photosynthetic process is more effective. This process known as phytoremediation has been used to clean up greenhouse gases, heavy metals, pesticides, xenobiotics, organic compounds, and toxic aromatic pollutants. It is a cost-effective technique to mitigate global warming. Plants capture atmospheric CO2 and convert it into organic compounds. The CO2 sequestration of plants through the leaf and extensive root systems is useful for reduction of CO2 by the potential assimilating capacity plants. Different plant species have different capacity of carbon sequestration potential. Plants that are identified and grown in and around the urban and industrial areas can reduce the air pollutants. They act as a wind breaker to minimize the transportation of air pollutants; the article has emphasis on the development of greenbelt model in urban forestry by planting more CO2 assimilating plants. The benefits of developing this model will not only sequester CO2, but also improve micro-climate of the urban area and increase urban biodiversity as best practices for sustainable environment and urban development. Three case studies are presented.

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Metadata
Title
CO2 Sequestration Through Phytoremediation Techniques with Special Emphasis on Urban Forestry to Mitigate Climate Change Impact
Authors
M. Govindaraju
J. Fowmitha Banu
S. Senthamil selvi
Malti Goel
Copyright Year
2021
Publisher
Springer Singapore
DOI
https://doi.org/10.1007/978-981-16-0029-6_15