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Analysis of the Energetic Use of Fuel Fractions Made of Plastic Waste

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Języki publikacji
EN
Abstrakty
EN
The overriding principle of waste management (already produced) is their reuse or use as secondary materials. It is consistent with the concept of a circular economy. Recycling materials and raw materials have the highest rank in the field of waste processing. For non-recyclable waste, other recovery processes also play a role. In the case of plastic waste, economically and ecologically justified processes of thermal transformation and catalytic depolymerisation leading to the formation of fuel fractions destined for energetic use may be useful. This direction of polymer waste processing is justified by the high calorific value of plastics. In the objective evaluation of waste treatment technologies, from the point of view of economics and environmental protection, it may be helpful to analyse the energy balance. The aim of the article is to analyse and evaluate the energy efficiency of using a mixture of hydrocarbons obtained in the process of catalytic depolymerisation of plastic waste based on the energy efficiency index for energy purposes. The efficiency index is calculated as the quotient of energy benefits and energy inputs for the use of depolymerisation products. Energy expenditure includes expenditures incurred in individual stages of the life cycle of a liquid product made of plastic waste. The conducted analysis showed that the energy use in the post-use phase of polymer products allows for the recovery of nearly 40% of the energy required for the production of products and processes enabling the use of waste from these products. Despite the low efficiency index, energy recovery from non-recyclable plastic waste should be considered as a positive action. Plastic packaging waste subjected to catalytic cracking can be included in the settlement of the obligation to achieve the required level of recovery if the cracking products are used for energy purposes.
Rocznik
Strony
100--106
Opis fizyczny
Bibliogr. 16 poz., rys., tab.
Twórcy
  • Institute of Transport, Internal Combustion Engines and Ecology, Lublin University of Technology, Nadbystrzycka 36, 20-618 Lublin, Poland
Bibliografia
  • 1. Czaplicka-Kolarz K., Burchart-Korol D. and Korol J. 2013. Application of life cycle and exergy analysis for environmental assessment of selected polymers (in Polish). Polimery 2013, 58, nr 7–8, 605–609.
  • 2. Goedkoop M., Oele M., de Sch A. and Vieira M. 2008. SimaPro Database Manual – Methods library. Netherlands: PRé Consultants. Available: http://www.pre.nl/download/manuals/DatabaseManualMethods.pdf. Accessed 30 November 2010.
  • 3. GUS (Central Statistical Office) 2018. Environment protection 2018 (in Polish). Zakład Wydawnictw Statystycznych, Warszawa.
  • 4. Kruszelnicka W., Bałdowska P., Tomporowski A., Piasecka I. and Mroziński A. 2018. Analysis of energy benefits of grinding energy carriers (In Polish). Inżynieria i Aparatura Chemiczna, 1/2018, 7–8.
  • 5. Lewandowska A., Szulżyk-Cieplak J. 2018. Analysis of the effectiveness of the municipal waste management system on the example of the Lubelskie Voivodeship, in: Contemporary problems in the field of environmental engineering and architecture (in Polish), red. Czyż Z., Maciąg K. Wydawnictwo Naukowe Tygiel sp. z o.o., Lublin.
  • 6. Marczak H. 2014. Simulations of the influence of changes in waste composition on their energetic propertirs. Journal of Ecological Engineering, vol. 15, nr 4, 90–97.
  • 7. Matuszewski J. 2012. Environmental Impact Report – Zakład Przetwórstwa Tworzyw Sztucznych in the town of Szwecja, commune Wałcz (in Polish). Available online: http://bip.gminawalcz.pl/dokumenty/403
  • 8. Matynia T. 2011. Method of catalytic cracking of organic waste compounds, catalyst for cracking catalytic waste organic compounds and device for cracking catalytic organic waste compounds (in Polish). Matynia Tadeusz Przedsiębiorstwo „Faber”, Lublin. Polska. Opis patentowy 208361 B1, WUP 04/11.
  • 9. Notice of the Speaker of the Sejm of the Republic of Poland of February 22, 2019 regarding the publication of a uniform text of the Act on the management of packaging and packaging waste (in Polish) (Dz. U. 2019, poz. 542), p. 28.
  • 10. Regulation of the Minister of the Environment of December 14, 2016 on the levels of recycling, preparation for re-use and recovery by other methods of certain municipal waste fractions (in Polish) (Dz. U. 2016, poz. 2167), p. 3.
  • 11. Regulation of the Minister of the Environment of December 3, 2018 on annual levels of recycling of packaging waste from households (In Polish) (Dz. U. 2018, poz. 2306), p. 2.
  • 12. Skutera D. 2013. Research on grinding processes and susceptibility to grinding of porous polyolefins in the aspect of their secondary processing (In Polish). UTP, Bydgoszcz.
  • 13. Spath P.L., Mann M. and Kerr D.R. 1999. Life Cycle Assessment of coal-fired power production. No. NREL/TP-570–25119. National Renewable Energy Laboratory. Golden, Colorado. Available: https://www.nrel.gov/docs/fy99osti/25119.pdf
  • 14. Resolution No. 88 of the Council of Ministers of 1 July 2016 on the National Waste Management Plan 2022 (in Polish) (M.P. poz. 784). Warszawa.
  • 15. VDI 1997. VDI-richtlinie 4600: Cumulative Energy Demand, Terms, Definitions, Methods of Calculation. Verein Deutscher Ingenieure, Düseldorf.
  • 16. Witkiewicz A., Czech R., Zabochnicka-Świątek M., Czech P. and Turoń K. 2018. Transportation of municipal waste on the example of a selected city of the Silesian agglomeration – part 2. Means of transport and costs (in Polish). Autobusy 2018, 12, 1012–1019.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-366d7bca-20a0-4367-9eea-dc3abf80a617
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