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Generation and composition analysis of municipal solid waste (MSW) in District Shopian Kashmir, J & K, India

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Research Paper 01/08/2022
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Generation and composition analysis of municipal solid waste (MSW) in District Shopian Kashmir, J & K, India

Ahsan Ul Haq Ahrar, Manglesh Kumar Jawalkar, A. H. Sofi
J. Bio. Env. Sci.21( 2), 1-10, August 2022.
Certificate: JBES 2022 [Generate Certificate]
Key: CompositionmanagementMunicipal solid waste (MSW)SeasonsShopian

Abstract

The present investigation is an attempt to explore the composition, characteristics, and generation rate of municipal solid waste in the Shopian (J&K) by selecting five different sites. The study revealed that the average residential municipal waste generation rates differed among sites. Daily, Site II recorded highest amount of waste generation 170.3 kg/day and minimum of 48.56 kg/day was recorded at SV. According to the seasons, summer has the biggest amount of daily waste generation 320.3 kg/day to a minimum of 98.3 kg in winter. The rate of waste generation per capita varied, ranging from 0.521 kg/capita/day (SII) to 0.3455 kg/capita/day (SV). The per capita waste generation rate was observed to change seasonally, ranging from 0.6589 kg/capita/day in the summer to 0.306 kg/capita/day in the winter. The average municipal solid waste composition of municipalities at different sites, based on the geographical scale: SI, SII, SIII, SIV, and SV. SII had the highest food waste proportion, followed by SI and the other locations. The waste fractions of paper and cardboard were greater at SIV, whereas the rest of the fractions followed a similar trend across sites. The % by weight (composition) of municipal garbage varied insignificantly among seasons (F= 2.33E-06, P=1) and sites (F= 9.15E-08, P=1), according to an analysis of variance test. The study also revealed that the proportion of flammable material in municipal solid trash ranged from 95% at SII to 83 % at SIII, whereas the percentage of non-combustible material in municipal solid waste ranged from 18% at SIII to 5% at SII. Seasonally, the combustible material percentage of the municipal solid waste ranged from 89 % in spring to 88% in all other seasons. Analysis of variance showed insignificant variation in % of combustible and non-combustible material content across different seasons (F=0.0328, P=0.895) and significant across sites (F=3.76, P=0.003).

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Abbasi SA. 2018. The myth and the reality of energy recovery from municipal solid waste. Energy Sustain Soc8, 36.

Ahluwalia IJ, Patel U. 2018. Solid waste management in India- An assessment of resource recovery and environmental impact, Indian Council for Research on International Economic Relations Working, 356, 1-48.

Ahmad P and Bhat GA. 2007. Solid waste generation in different income groups of Srinagar city. Journal of Research and Development 5, 45-50.

Akhter Z and Najar IA. 2016. Composition of solid waste in Doodhpathri (Budgam), Jammu and Kashmir. International Research Journal of Earth Science 4(11), 10-16.

Annepu RK. 2012. Sustainable solid waste management in India. MS Dissertation, 1-189.

Berneche-Perez G, SC Salvadro, GA Marıa, DV Artruro and SSM Elena, 2001. Solid waste characterization study in the Guadalajara metropolitan zone, Mexico. Waste Management and. Research. 19, 413-424.

Buenrostro O, B Gerardo and B Gerardo. 2001. Urban solid waste generation and disposal in Mexico: A case study. Waste Management and Research 19, 169-176.

Registrar General I. 2011. Census of India 2011: provisional population totals-India data sheet. Office of the Registrar General Census Commissioner, India. Indian Census Bureau, 2.

Central Pollution Control Board. 2016. Consolidated annual review report on implementation of municipal solid wastes (Management and Handling) Rules, 2000.8 (2).

Dutta A, Jinsart W. 2020. Waste generation and management status in the fast-expanding Indian cities: A review. Journal of the Air & Waste Management Association, 70(5), 491-503.

Gupta N, Yadav KK and Kumar V. 2015. A review on current status of municipal solid waste management in India, Journal of Environmental Sciences. 37, 206-217

Jain PK. 1994. Waste management in Delhi. Civil Affairs. 31(2), 51-57.

Joshi R and Ahmed S. 2016. Status and challenges of municipal solid waste management in India: A Review. Cogent Environment Science, 2(1), 1139434.

Kolekar KA, Hazra T and Chakrabarty SN. 2016. A review on prediction of municipal solid waste generation models. Procedia Environmental Sciences. 35, 238-244

Kumar A and Agrawal A. 2020. Recent trends in solid waste management status, challenges, and potential for the future Indian cities- A review. Current Research in Environmental Sustainability. 2,100011.

Kumar S, Smith SR, Fowler G, Velis C, Kumar SJ, Arya S, Rena, Kumar R, & Cheeseman C. 2017. Challenges and opportunities associated with waste management in India. Royal Society Open Science 4, 160-764.

Laohalidanond K, Chaiyawong P and Kerdsuwan S. 2015. Municipal solid waste characteristics and green and clean energy recovery in Asian megacities. Energy Procedia 79, 391-396.

Ministry of Housing and Urban Affairs (MoHUA). 2020. Swachhatasandesh18.Newsletter.

Moyna. 2012. What a waste. Down To Earth 21(10), 18-19.

Rampal RK, Kour J & Jamwal R. 2002. Solid waste generation in government hospitals of Jammu city, India. Pollution Research 21(1), 39-43. 

Sharma KD and Jain S. 2020. Municipal solid waste generation, composition, and management: the global scenario. Social Responsibility Journal 16(6), 917-48.

S Ojeda-Benı́tez and J L Beraud-Lozano. 2003. The municipal solid waste cycle in Mexico: final disposal. Resources, conservation and recycling. 39(3), 239-50.

TPOK. 2019. Master plan-2035 of Srinagar metropolitan region. Town Planning Organization, Srinagar 1-322

Zhang JH.  2012. Characterization of a Rhizobium larrymoorei FJ exhibiting high level Cr(VI) reduction potential. Advanced Materials Research, 356-360, :1009-1014.

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