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Research Article Volume 9 Issue No. 6 An Estimation of Carbon Content in a Urban Pocket: A Case Study of Saibaba Colony, , Tamilnadu Dr. N. Muthusamy1, W. S. Jisha2, N. Nagendran3, Ajay Sudharsan. L4 Assistant Professor (Urban Planning/Envi.Engg.)1, M.Sc., Applied Geography2, Former Intern-Geographer3, Intern-Planner4 Tamilnadu Institute of Urban Studies, India1, 3, 4 University of Madras, India2

Abstract: Urban development which leads to an urban heat. The air in an urban heat island can be as much as 20*F(11*c) higher than the rural areas surrounding the city buffer. The presence of trees which plays the vital role to reduce the temperature by capturing the carbon. The global carbon is held in a variety of different stocks. Natural stocks include oceans, fossil fuel deposits, the terrestrial system and the atmosphere.[1] About 2/3rd of the carbon is stored in the forest, plants and trees and the debris of the forest soil. A stock that is taking up carbon is called ‘sink’. The shift or flow of carbon from one stock to other is called carbon fluxes.Thus estimating the above ground trees biomass carbon is the step to quantifying carbon stocks and fluxes , which is focus on this paper. The estimation shows that the annual CO2 removals by the Indian’s forest and tree cover is enough to neutralise 11.25% of ’s total GHG emissions(CO2 equivalent ) at 1994 level, the most recent year for which comparable data is available for the developing countries based on their respective National Communications (NATCOMs) to the United Nations Framework Convention on Climate Change(UNFCC).

Keywords: Carbon content, Vegetation cover, Wood volume, Heat emission, Sustainability.

I. INTRODUCTION balance of sink in northern latitude and source in the tropics to be about 9.5GtCO2. Terrestrial carbon dynamics are Urban climate which is a consequence of urbanization. characterized by long periods of small rates of carbon uptake Urbanization has a dynamic relation with the physical per hectare, intertupted by short periods of rapid and large environment which changes the normal climatic pattern. release of carbon during the disturbances and harvest. While Climate change arising due to the increase in concentration of individual stands in a forest may be sources or sinks, the greenhouse gases in the atmosphere. The rising concentrations carbon balance of the forest is determined by the sum of the of greenhouse gases (GHGs) of anthropogenic origin in the net balance of all stands. atmosphere such as carbon dioxide (CO2), methane (CH4) and nitrous oxide (N2O) have increased, since the late 19th Climatic change 2007: mitigation of climatic change century. These changes can be distinguished from the (Working group III contribution to the 4th assessment of differences of air temperature, , wind speed and the IPCC) direction and amount of precipitation. As limiting it into the The atmospheric concentration of carbon has increased from local area, the phenomena of carbon capture for reducing the 280-380ppmv (38% of change) since pre-industrial time due heat emission in the atmosphere can be substantially achieved. to carbon di oxide emission from anthropogenic fossil fuel The parts of local area supports the equilibrium in nature and burning and deforestation. The emission rate of carbon from it tends to planatation for the future. The estimation of carbon the fossil fuel (oil, coal, gas) consumption is currently about content or settlement helps in tracing the fluxes of carbon 8Gtc y-1(1015 g of carbon per year) while the deforestation componenets and mobility in atmosphere. Periodically this rate for the 1990’s is estimated to be 1.6(0.5-2.7). The assessment helps in appraising the value of trees in human cumulative fossil fuel emission since 1800 is 330 Gtc, but only lives in this latest century. It will be a good study for half of that remains in the atmosphere and the remains are environmental impacts to make it more sustainable. Saibaba absorbed by carbon sinks in the ocean and on land. To keep Colony is located in the west zone of Coimbatore Municipal the atmosphere concentration of carbon di oxide below 450- Corporation area. This study area is comprised of 2.33 Sq.Km 600 ppmv possess a challenge to human. The major strategy or 233 Hectare. The main characteristics of this local area is taken to control is: - (i) to reduce carbon emission (ii) to Residential, Commercial and Institutional. Hence the analysis capture CO2 and store it i.e.; sequestration. For quantifying will be measured in terms of these characteristcs. the carbon sequestration the potential ways include:- (i) sustainable sink of tree removal (ii) one time potential from II. LITERATURE REVIEW estimating coarse woody debris (iii) enhancing the sustainable rate via selective cutting of live tree. The study which also The global forest cover is 3952 million ie; about 30% of the quantifies some measures implement for the wood burial. world’s land area. During the last decades of the 20th century, Carbon sequestration via wood burial (CBM Journal) deforestation in the tropics and forest regrowth in the temperate zone and parts of the boreal zone remained the III. OBJECTIVES major factors responsible for CO2 emissions. Emissions from deforestation in the 1990’s are estimated at 5.8 GtCO2/yr. The  To identify the trees on the basis of interpretation keys

International Journal of Engineering Science and Computing, June 2019 22806 http://ijesc.org/  To classify the trees by using Remote sensing and GIS  To estimate the wood volume  To calculate the dry biomass and find the carbon content  To calculate the area of the vegetation cover V. INTERPRETATION KEY IV. METHODOLOGY

VI. VISUAL SURVEY

Figure.1. Honge Tree Figure.2. Peacock Tree Figure.3. Tree

Figure.4. Neem Tree Figure.5. Rusty Shield Barrier Figure.6. Rain Tree

VII. STUDY AREA & ANALYSIS SAIBABA COLONY ±

0.250.125 0 0.25 Kilometers

Source:Aerial Imagery, Google Earth

International Journal of Engineering Science and Computing, June 2019 22807 http://ijesc.org/ AVENUE PLANTATION ±

LEGEND Ashoka tree Coconut tree Honge Neem Others Peacock tree Rain tree

Rusty sheild bearer 0.250.125 0 0.25 Kilometers

Source: Classification on Aerial Imagery, Google Earth and extracted through primary data

AVENUE PLANTATION ±

LEGEND Ashoka tree Coconut tree Honge Neem Others Peacock tree Rain tree

Rusty sheild bearer 0.250.125 0 0.25 Kilometers

Source: Classification on Aerial Imagery, Google Earth and extracted through primary data

AVENUE PLANTATION ± 0.080.04 0 0.08 Kilometers

LEGEND

Ashoka tree Coconut tree Honge Neem Others Peacock tree Rain tree Rusty sheild bearer

Source: Classification on Aerial Imagery, Google Earth and extracted through primary data

International Journal of Engineering Science and Computing, June 2019 22808 http://ijesc.org/ RESIDENTIAL PLANTATION ± 0.040.02 0 0.04 Kilometers

LEGEND

Ashoka tree Coconut tree Grass Honge Neem Others Peacock tree Rain tree Rusty sheild bearer

Source: Classification on Aerial Imagery, Google Earth and extracted through primary data

INSTITUTIONAL PLANTATION ±

LEGEND

Ashoka tree Coconut tree Grass Honge Neem Others Peacock tree Rain tree 0.20.1 0 0.2 Kilometers Rusty sheild bearer

Source: Classification on Aerial Imagery, Google Earth and extracted through primary data

TRAFFIC ISLAND GREENERY ±

LEGEND Neem Peacock tree Rain tree Rusty sheild bearer 0.250.125 0 0.25 Kilometers

Source: Classification on Aerial Imagery, Google Earth and extracted through primary data

International Journal of Engineering Science and Computing, June 2019 22809 http://ijesc.org/

Source: Classification on Aerial Imagery, Google Earth and extracted through primary data

GREENERY/ VEGETATION CLASSIFICATION ±

LEGEND

Ashoka tree Coconut tree Honge Neem Others Peacock tree Rain tree Rusty sheild bearer 0.40.2 0 0.4 Kilometers City_Forest

Source: Classification on Aerial Imagery, Google Earth and extracted through primary data

Table.1. Green/Vegetation Cover

International Journal of Engineering Science and Computing, June 2019 22810 http://ijesc.org/ Table.2. Total Wood Volume

Table.3. Dry matter Biomass

Table.4. Carbon Content

VIII. CONCLUSION Approximately a person needs about 9 tons of air per year including oxygen and other gases, so minimum 7 trees are Concluding the above analysis, it depicts that the study area needed per person. At present, it doesn't exists for the level of which is having approximately 7000 of trees and inferenced in benchmarking. Even the native species are under the threat total of 30.39 Hectare of Carbon seggregation.According to and also degraded for diversed development. Hence stop the observation trees are more concentrated along the road deforesting and start plantations in every local area. side. Rusty sheild bearer which covers the large area under institutional plantation and the tree which contain the high IX. REFERENCES amount of carbon content.Since the includes the forest which have a high density of rusty sheild bearer and honges [1]. Web Source:http://jrscience.wcp.muohio.edu/studentre there contain the high concentration of forest. As resultant, search/ climatechange02/kyoto/articles/carbonsinks.pdf 13% of a study area has a carbon traces and it has to be more for neutralizing the environment impacts. Increase in vehicular [2]. R.N.Sharma, K.Sita. (2001) "Urban development-A case of population, deforestation, pollution, different types of Navi " Rawat Publications. emissions are the prime factors for affecting an ecosystem. Each of our local area can be neautralized atleast through [3]. Dr.V.Nath. (2007) " Urbanization urban development & plantation, it may have a positive effect in the global level. Metropolitan cities in India " Concept Publishing Company.

International Journal of Engineering Science and Computing, June 2019 22811 http://ijesc.org/ [4]. Eduardo Lopez Moreno. " State of the World’s Cities Author4 2008/2009 Harmonious Cities " UN HABITAT Earth scan publishers.

[5]. Helmet.E.Landsberg. " The urban climate " International Geophysics series.Volume-28

ACKNOWLEDGMENTS

We express our special gratitude to the wisdom of Research Ajay Sudharsan L and Training Centre " Institute of Urban Studies" Intern-Planner for integrating us and given an wonderful opportunity to work Tamilnadu Institute of Urban Studies on this project. Especially we thank, Thiru.Sellakrishnan, He is an Physical Planner and specialized in GIS, Spatial Project Manager, ICLEI, Coimbatore for helping with the data analysis and other advanced analytical tools in mapping and for this study. Also we thank all the professionals for co- design. He serves many professionals and students with his operating with us and for being a backbone till the completion skills and opinions in aid of non physical firm. He also of this project. authored few research papers and presented in national conference wisely. Now, he is researching on various sectors X. AUTHORS PROFILE with the guidance of affluent professionals of core research

1 team. His focus and interests are in Cyber Design, GIS, MIS, Author Poverty Alleviation etc. A strong believer in the ability of planning and research combined with Spatial thinking for strengthening our societies and having a positive effect on the world. His prime objective is to achieve the original status of planners among all other profession throughout India.

Dr.N.Muthusamy Faculty, Urban Planning Tamilnadu Institute of Urban Studies He obtained his Under Graduation in Civil Engineering from Government College of Engineering, Coimbatore in the year 1998. He completed his Masters in Urban Engineering from , . Later worked as a Research Associate for the Traffic Operational Management Plan (TOMP) project sponsored by DTCP, Go TN for the four selected Urban settlements of TamilNadu. Then moved for a year time at DSM Software Pvt, Ltd as a Spatial Data Executive & Photogrammetrist. Then he joined at Institute of Remote Sensing, Anna University, Chennai as a Teaching Research Associate. During the time handled subjects such as Remote Sensing and GIS for Urban and Regional Planning, Advanced Surveying, Digital Photogrammety, Interpretation Labs, etc. Also guided several Mini and Masters Students Projects for the Civil Engineering and Master of Geoinformatices students. Also completed his research work on “Urban Feature Extraction from High Resolution Remote Sensing Data” and Published papers at the National and International Journal. In the year 2007, he joined at TamilNadu Institute of Urban Studies, Coimbatore as an Assistant Professor (Urban Planner / Environmental Engineer) and continuing his service till now. During his service he is coordinating and organizing the In-service and Sponsored training programmes such as TNUDP III, TNSUDP, SJSRY, BRGF, JnNURM, AMRUT and the area of Urban Governance, Urban Planning, Municipal Engineering, GIS, etc for the working officials as well as Elected Representatives of Urban Local Bodies of TamilNadu. During his time involved in preparing / editing half dozen volume of training handbooks for the above said programmes as Joint authors. Also Handling classes for the above training programmes. And guiding students from the Madras University, Anna University, etc for their projects. Also coordinating to make MoU with related institutions at the State level, National level and International level.

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