Abstract
The key issue of modern cities is their energy independence, which is still insufficient for most cities in the world. Outages in the supply of energy raw materials can endanger the basic functioning of cities, especially with regard to the heat supply of cities in the colder parts of our earth. This threat is exacerbated as far as the energy source is located further away from the city. It also increases transportation costs, which also increases the already high carbon footprint of the city. The solution to this problem is to find local sources of raw materials, which is the focus of this article. The most important of the energy raw materials in cities are municipal wastes. In addition, their biodegradable component, which makes up the majority, is a clean renewable resource. By incinerating this biodegradable municipal waste, we are able to reduce the cost of transporting and landfilling waste from cities and, on the other hand, obtain a source of clean and environmentally friendly alternative fuel. In this way, we create an alternative to the currently used fossil fuel coal, which often has to be imported to cities from great distances. Our article examines the benefits of using the basic components of this biodegradable waste generated in city parks, gardens or in the surrounding fields, and forests near cities. By burning these raw materials, we are able to create a closed cycle of these raw materials and ensure a balanced use of resources on our planet.
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References
Mishra UC (2004) Environmental impact of coal industry and thermal power plants in India. J Environ Radioact 72:35–40. https://doi.org/10.1016/S0265-931X(03)00183-8
Karampinis E, Grammelis P et al (2014) Co-firing of biomass with coal in thermal power plants: technology schemes, impacts, and future perspectives. Wires Energy Environ 3:384–399. https://doi.org/10.1002/wene.100
Rasmussen C, Vigsoe D (2005) Rethinking the waste hierarchy. Institut for Miljoevurdering, Copenhagen, p 118
Kammen MD, Sunter AD (2016) City-integrated renewable energy for urban sustainability. Science 352:922–928. https://doi.org/10.1126/science.aad9302
Zavodska A, Benesova L, Smith B, Morrissey A (2014) A comparison of biodegradable municipal waste (BMW) management strategies in Ireland and the Czech Republic and the lessons learned. Resour Conserv Recycl 92:136–144
Pobozna M (2019) Waste in the Slovak Republic 2018. Statistical Office SR, Bratislava, p 92
Crowe M, Nolan K; Company Biodegradable Municipal Waste Management in Europe (2002) European Environment Agency, p 123. http://waste.com.br/textos/Biodegradable%20municipal%20waste%20management%20in%20Europe.pdf
Shi Y, Ge Y, Chang J, Shao H, Tang Y (2013) Garden waste biomass for renewable and sustainable energy production in China: potential, challenges and development. Renew Sust Energ Rev 22:432–437
Loehr CR (1974) Agricultural waste management problems, processes, approaches. Subsidiary of Harcourt Brace Jovanovich, Ithaca
Macfarlane WD (2009) Potential availability of urban wood biomass in Michigan: implications for energy production, carbon sequestration and sustainable forest management in the USA. Biomass Bioenergy 33:628–634
Cicmanec S (2008) Biogas - suitable supplement to natural gas. Slovgas 5:24–27
Hrobaj P (2000) Ecological aspects of combustion. Neografia, Martin
Ohman M, Nordin A et al (2000) Bed agglomeration characteristics during fluidized bed combustion of biomass fuels. Energy Fuel 14:169–178. https://doi.org/10.1021/ef990107b
Puy N, Murillo R et al (2011) Valorization of forestry waste by pyrolysis in an auger reactor. Waste Manag 31:1339–1349
Fang W, Song W, Liu L et al (2000) Characteristics of indoor and outdoor fine particles in heating period at urban, suburban, and rural sites in Harbin, China. Environ Sci Pollut Res 27:1825–1834
Caserini S, Livion S, Giugliano M, Grosso M, Rigamonti L (2010) LCA of domestic and centralized biomass combustion: the case of Lombardy (Italy). Biomass Bioenergy 34:474–482
Obernberger I (1998) Decentralized biomass combustion: state of the art and future development. Biomass Bioenergy 14:33–56
STN EN ISO 1716, 2010: Reaction to fire tests for products. Determination of the gross heat of combustion
LECO Corporation Michigan, USA, 2019: 628 series elemental analysis by combustion. https://www.leco.com/images/Products/elemental/628/628-SERIES_209-218.pdf
Acknowledgements
This contribution has been created as part of the project VEGA 1/0233/19 “Construction modification of the burner for combustion of solid fuels in small heat sources” and KEGA 033ŽU-4/2018 “Heat sources and pollution of the environment” and APVV-17-0311 “Research and development of zero waste technology for the decomposition and selection of undesirable components from process gas generated by the gasifier”.
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Holubčík, M., Jandačka, J., Trnka, J. (2023). Closed Cycle of Biodegradable Wastes in Smart Cities. In: Cagáňová, D., Horňáková, N. (eds) Industry 4.0 Challenges in Smart Cities. EAI/Springer Innovations in Communication and Computing. Springer, Cham. https://doi.org/10.1007/978-3-030-92968-8_4
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DOI: https://doi.org/10.1007/978-3-030-92968-8_4
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