Analysis Of Production and Potential Utilization as Electricity Methane Gas Air Dingin Landfill
Abstract
This study intends to analyze methane gas emissions resulting in landfill procedures. The magnitude of the impact of methane gas emissions on global warming from the waste sector, it is necessary to calculate the potential amount of methane gas emissions of Padang city waste in the Air Dingin Landfill so that it can be used for new energy potential as an alternative energy to replace fossil fuels no longer as a contributor to global warming. In this study, the methodology contains systematic steps in researching to achieve research objectives, namely conducting preliminary studies and literature studies, formulating problems, and setting research objectives as well as how to collect and obtain research data. The result of this study is that the Air DIngin Landfill in Padang City is still processing open dumping, with land that has been operated around 50% of the existing land area. The high operational costs are one of the reasons the sanitary landfill system cannot be done by the Padang City Government. Methane gas produced from 2020 - 2031 in the Air Dingin Landfill is produced from scenario 1 (waste directly landfilled) which is 43,289 gigagrams of CH4 or 43,289 tons of CH4 emissions. CH4 emission scenario 2 (waste reduction by waste pickers in landfill) produced 43,267 gigagrams or 43,267 tons of CH4. CH4 emission scenario 3 (Reduction of waste at source, in the region, and in landfill) produced 40,944 gigagrams CH 4 or 40,944 tons of CH4. After converting methane gas into electrical energy, the potential electricity in scenario 1 is 84.15 megawatts, scenario 2 is 84.10 megawatts and scenario 3 is 79.59 megawatts in 2031.
References
Apourv, Pant and J.P.N, Rai. 2021. Application of Biochar on methane production through organic solid waste and ammonia inhibition. Journal. Elsevier. Environmental Challenges 5.
Sriharti, et al. 2018. Production of Biogas from Organization Waste and Its Utilization as An Alternative Energy Source. Journal. International Journal of Environment, Agriculture and Biotechnology (UEAB). Vol-3, Issue-3.
NIST. 2011. Methane. Material Measurement Laboratory. U.S. Secretary of Commerce on behalf of United State of America quoted December 25, 2016 from http://webbook.nist.gov/cgi/cbook.cgi.
IPCC. 2006. 2006 IPCC Guidelines for National Greenhouse Gas Inventories. Vol 5, Waste, Chapter 3, Solid Waste Disposal.
EPA. 2014. Global Mitigation of Non-CO2 Greenhouse Gases: 2010-2030. U.S. Environmental.
EEA. 2014. Annual European Union Greenhouse Gas Inventory 1990-2011 and Inventory Report 2014, European Environment Agency.
Purwanta, Rev. 2009. Calculation of Greenhouse Gas (GHG) Emissions from the Urban Waste Sector in Indonesia. Department of Environmental Engineering Vol 10 No 1: 1-8 Jakarta ISSN 1441-318X.
Gell, K., Groniegen, V.J., Cayuela, M.L. 2011. Residues of Bioenergy Production Chain as Soil Amendment: Immediate and Temporal Phytotoxicity. J Hazardous Mater. 186(2-3), 2017-2025.
Scheutz, C., Samuelsson, J., Fredenslund, A.M., Kjeldsen, P., 2011. Quantification of Multiple Methane Emission Sources at Landfills Using A Double Tracer Terchnique. Waste Manage. 31 (5). 1009-1017.Apourv, Pant and J.P.N, Rai. 2021. Application of Biochar on methane production through organic solid waste and ammonia inhibition. Journal. Elsevier. Environmental Challenges 5.
Copyright (c) 2023 Dedy Aulya Pratama, Slamet Raharjo, Rizki Aziz
This work is licensed under a Creative Commons Attribution 4.0 International License.
