Applying waste treatment scenarios in Toluca region (Mexico).

Nina Tsydenova


DOI: https://doi.org/10.14710/5.1.1-8

Abstract


Governments in emerging countries need to analyse waste treatment alternatives, other than landfills, in order to decrease environmental pollution and socio-economic impacts. This study is assessing several alternative scenarios of waste treatment in Toluca municipality (Mexico) such as sanitary landfill, combustion of landfill gas, waste incineration (WtE), mechanical-biological treatment (MBT) and combination of anaerobic digestion (AD) and sanitary landfill under the condition of source waste separation. The objective of the research is the identification of the most feasible waste treatment scenario for developing countries which have the high percentage of organics on waste stream. The assessment is implemented from several perspectives: greenhouse gas (GHG) emissions, economic feasibility and consideration of informal recycling sector. The emissions generated at the baseline scenario are high due to the great percentage of organics in the municipal solid waste (MSW). The WTE and MBT facilities generate the lowest emissions but have a high gate fee. The scenario involving AD and sanitary landfill has the lowest gate fee while its emissions are significantly reduced compared to the baseline. The author believes that widespread adoption of AD systems, together with the source separation scheme, can be the starting point in the implementation of sustainable waste management in transition countries, such as Mexico.


Keywords


Assessment methods, waste management, anaerobic digestion, waste-to-energy, mechanical-biological treatment, sanitary landfill, climate change

Full Text:

FULL TEXT PDF

References


Assamoi B. and Lawryshyn Y. 2012. The environmental comparison of landfilling vs. incineration of MSW accounting for waste diversion. Waste Management 32: 1019–1030

Astrup T., Moller J. and Fruergaard T. 2009. Incineration and co-combustion of waste: accounting of greenhouse gases and global warming contributions. Waste Management & Research 27: 789–799.

Aye L. and Widjaya E.R. 2006. Environmental and economic analyses of waste disposal options for traditional markets in Indonesia. Waste Management 26: 1180–1191.

Belboom S., Digneffe J.M., Renzoni R., Germain A. & Léonard A. 2013. Comparing technologies for municipal solid waste management using life cycle assessment methodology: a Belgian case study. The International Journal of Life Cycle Assessment 18: 1513–1523.

Bezama A., Aguayo P., Konrad O., Navia R., Lorber K. 2007. Investigations on mechanical biological treatment of waste in South America: Towards more sustainable MSW management strategies. Waste Management 27: 228-237

Bezama A., Douglas C., Mendez J., Szarka N., Munoz E., Navia R. 2013 Life cycle comparison of waste-to-energy alternatives for municipal waste treatment in Chilean Patagonia. Waste Management & Research 31: 67–74.

Bockreis A. and Mueller W. 2014. Best available techniques (BAT) for Mechanical-Biological Treatment plants. In: Thome-Kozmiensky KJ & Thiel S. (eds.) Waste management. Proceedings of the International Conference on Waste-to-Energy, Vienna, 8-9 September, pp.435–444, Neuruppin TK

Buenrostro O., Bocco G. & Bernache G. 2001. Urban solid waste generation and disposal in Mexico: a case study. Waste management & research 19: 169–176.

Castrejon-Godinez M.L., Sanchez-Salinas E., Rodriquez A., Ortiz-Hernandez M.L. 2015. Analysis of solid waste management and greenhouse gas emissions in Mexico: A study case in the central region. Journal of environmental protection 6: 146-159.

Conestoga-Rovers & Associates. 2004. Handbook for the preparation of landfill gas to energy projects in Latin America and the Caribbean. Energy Sector Management Assistance Programme paper series. Washington, DC: World Bank. http://documents.worldbank.org/curated/en/2004/01/6210113/handbook-preparation-landfill-gas-energy-projects-latin-america-caribbean (accessed March 29, 2016)

Coffey M. & Coad A. 2010. Collection of municipal solid waste in developing countries. 2nd ed.Nairobi, Kenya: UN-HABITAT

De Gioannis, G., Muntoni A., Cappai, G., Milia, S., 2009. Landfill gas generation after mechanical biological treatment of municipal solid waste. Estimation of gas generation rate constants. Waste Management 29, 1026-1034.

Di Maria F., Micale C. 2013. Impact of source segregation intensity of solid waste on fuel consumption and collection costs. Waste Management 33: 2170-2176

Diaz L.F., Savage G.M., Eggerth L.L. and Rosenberg L. 2005. Solid waste management. Paris, France: United Nations Environment Programme.

Giang H.M., Luong N.D., Huong L.T.H. 2013. Assessment of potential greenhouse gas mitigation of available household solid waste treatment technologies. Waste Technology 1: 10-16

Gomez-Brandon M. and Podmirseg S.M. 2013. Biological Waste Treatment. Waste Management & Research 3: 773.

Hupponen M., Grönman K., Horttanainen M. 2015. How should greenhouse gas emissions be taken into account in the decision making of municipal solid waste management procurements? A case study of the South Karelia region, Finland. Waste Management 42: 196–207

Jaramillo P. & Matthews H.S. 2005. Landfill-Gas-to-Energy Projects: Analysis of Net Private and Social Benefits. Environmental Science & Technology 39: 7365–7373.

Khatib I.A. 2011. Municipal Solid Waste Management in Developing Countries: Future Challenges and Possible Opportunities, Integrated Waste Management - Volume II

KfW 2009. Manual. SWM-GHG Calculator. Tool for calculating greenhouse gases (GHG) in solid waste management (SWM), https://www.giz.de/expertise/downloads/giz-kfw-ifeu2009-en-climate-calculator-swm-manual.pdf (accessed July 19, 2016)

Lamb G. and Fountain L. 2010. An investigation into food waste management. http://www.actiondechets.fr/upload/medias/group_b_report_compressed.pdf. (accessed January 10, 2016)

Leme M.M.V., Rocha M.H., Lora E.E.S., Venturini O.J., Lopes B.M. and Ferreira C.H. 2014. Techno-economic analysis and environmental impact assessment of energy recovery from Municipal Solid Waste (MSW) in Brazil. Resources, Conservation and Recycling 87: 8–20.

Mastellone M.L., Brunner P.H. and Arena U. 2009. Scenarios of Waste Management for a Waste Emergency Area. Journal of Industrial Ecology 13: 735–757.

Matter A., Ahsan M., Marbach M. and Zurbrügg C. 2015. Impacts of policy and market incentives for solid waste recycling in Dhaka, Bangladesh. Waste Management & Research 39: 321-328

Menikpura N., Janya S.A. and Bengtsson M. 2012. Mechanical Biological Treatment as a Solution for Mitigating Greenhouse Gas Emissions from Landfills in Thailand. ISWA World Solid Waste Congress 2012. ISWA. Florence (Italy) http://pub.iges.or.jp/modules/envirolib/upload/3692/attach/Full_paper-_Mechanical_Biological_Treatment_as_a_Solution_for_Mitigating_Greenhouse_Gas_Emissions_from_Landfills_in_Thailand.pdf (accessed January 10, 2016)

Mikic M. and Naunovic Z. 2013. A sustainability analysis of an incineration project in Serbia. Waste Management & Research 31: 1102–1109

Navarotto P. and Llauro R.D. 2012. Materials recovery from municipal solid waste Ecoparc 4 Barcelona a case study. http://www.mater.polimi.it/mater/images/Meetings/Documents/20120627_Milano/navarotto_11.pdf.(accessed January 10, 2016)

Nixon J.D., Wright D.G., Dey P.K., Ghosh S.K. and Davies P.A. 2013. A comparative assessment of waste incinerators in the UK. Waste Management 33: 2234–2244.

Psompolous C.S. and Themelis N.J. 2014. A guidebook for sustainable waste management in Latin America. In: Thome-Kozmiensky KJ & Thiel S. (eds.) Waste management. Proceedings of the International Conference on Waste-to-Energy, Vienna, 8-9 September, pp.121-150, Neuruppin TK

Ren X. and Hu S. 2014. Cost recovery of municipal solid waste management in small cities of inland China. Waste Management & Research 32: 340–347.

Schwanse E. 2011. Recycling policies and programmes for PET drink bottles in Mexico. Waste Management & Research 29: 973–981.

Snyman J. and Vorster K. 2011. Sustainability of composting as an alternative waste management option for developing countries: A case study of the City of Tshwane. Waste Management & Research 29: 1222–1231.

Themelis N.J., Barriga M.E., Estevez P. and Velasco M.G. 2013. Guidebook for application of waste to energy technologies in Latin America and the Caribbean. Inter-American Development Bank. Earth Engineering Center, Columbia University. http://www.seas.columbia.edu/earth/wtert/pressreleases/Guidebook_WTE_v5_July25_2013.pdf(accessed January 10, 2016)

Thome-Kozmiensky K.J. 2014. Incineration is a process step in recycling processes. In: Thome-Kozmiensky KJ & Thiel S. (eds.) Waste management. Proceedings of the International

Vassilis I., Rojas-Solórzano L., Kim J., Aitbekova A., Ismailova A. 2015. Comparison between landfill gas and waste incineration for power generation in Astana, Kazakhstan. Waste Management & Research 33: 486-494

Waste to Energy and Technology Council (WTERT) (2010): Earth Engineering Center. Columbia University. http://www.seas.columbia.edu/earth/wtert/faq.html (accessed July 19, 2016)

Wilson D.C. 2015. Global Waste Management Outlook. From UNEP. http://www.unep.org/ietc/Portals/136/Publications/Waste%20Management/GWMO%20report/GWMO_report.pdf(accessed January 10, 2016)




Published by Waste Resources Research Center (WRRC), Diponegoro University - Indonesia
   
 
WasTech by http://ejournal.undip.ac.id/index.php/wastech is licensed under Creative Commons Attribution-ShareAlike 4.0.