
How much can chemical recycling contribute to plastic waste recycling in Europe? An assessment using material flow analysis modeling
- Author
- Irdanto Saputra Lase (UGent) , Davide Tonini, Dario Caro, Paola F. Albizzati, Jorge Cristóbal, Martijn Roosen (UGent) , Marvin Kusenberg (UGent) , Kim Ragaert, Kevin Van Geem (UGent) , Jo Dewulf (UGent) and Steven De Meester (UGent)
- Organization
- Abstract
- Plastic recycling rate in Europe is low, urging developments in recycling technology and strategies to increase circularity. Mechanical recycling (MR) has been the reference recycling technology for years, but in the near future chemical recycling (CR) options are expected to contribute to improve plastic circularity. This study uses a material flow analysis (MFA) at European level to provide quantitative estimates of the contribution of CR technologies to plastic recycling. Ten most used polymer types from five sectors are selected. A status quo 2018 scenario is modelled and compared to five potential future scenarios (in 2030) of plastic waste treatment, including one that only looks at improved waste collection, sorting, and MR technologies and four exploring developments of CR options. The so-called ‘missing plastics’, i.e., plastic waste generated but currently not accounted for in statistics, is considered in one of the future scenarios. The MFA results are compared by calculating four circularity indicators namely end-of-life recycling rate (EoL-RR), plastic-to-plastic rate, plasticto-chemicals rate, and plastic-to-fuels rate. The results indicate that in the most optimistic scenario the EoL-RR in 2030 is 73–80% (sum of plastic-to-plastic and plastic-to-chemical rates, excluding plastic-to-fuel rate), in which 41–46% is plastic-to-plastic from MR, 15–38% is plastic-to-plastic from CR and 19–35% is plastic-to-chemicals. The highest achievable plastic-to-plastic rate is estimated to be 61% (46% from MR and 15% from CR). In all future scenarios, the plastic-to-fuel rate is estimated to be 3–6%. The MFA results are also used to estimate potential recycled content availability in 2030, which suggest that closed-loop recycling and processing the ‘missing plastics’ will be necessary to achieve the targets.
- Keywords
- Material flow analysis, Chemical recycling, Plastic waste, Circularity indicator, Recycled content, CIRCULAR ECONOMY, PACKAGING WASTE, PYROLYSIS OILS, GASIFICATION, OPPORTUNITIES, PERFORMANCE, MANAGEMENT
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Citation
Please use this url to cite or link to this publication: http://hdl.handle.net/1854/LU-01GTBQGAEYDHD00E7FQ6FYDH1R
- MLA
- Lase, Irdanto Saputra, et al. “How Much Can Chemical Recycling Contribute to Plastic Waste Recycling in Europe? An Assessment Using Material Flow Analysis Modeling.” RESOURCES CONSERVATION AND RECYCLING, vol. 192, 2023, doi:10.1016/j.resconrec.2023.106916.
- APA
- Lase, I. S., Tonini, D., Caro, D., Albizzati, P. F., Cristóbal, J., Roosen, M., … De Meester, S. (2023). How much can chemical recycling contribute to plastic waste recycling in Europe? An assessment using material flow analysis modeling. RESOURCES CONSERVATION AND RECYCLING, 192. https://doi.org/10.1016/j.resconrec.2023.106916
- Chicago author-date
- Lase, Irdanto Saputra, Davide Tonini, Dario Caro, Paola F. Albizzati, Jorge Cristóbal, Martijn Roosen, Marvin Kusenberg, et al. 2023. “How Much Can Chemical Recycling Contribute to Plastic Waste Recycling in Europe? An Assessment Using Material Flow Analysis Modeling.” RESOURCES CONSERVATION AND RECYCLING 192. https://doi.org/10.1016/j.resconrec.2023.106916.
- Chicago author-date (all authors)
- Lase, Irdanto Saputra, Davide Tonini, Dario Caro, Paola F. Albizzati, Jorge Cristóbal, Martijn Roosen, Marvin Kusenberg, Kim Ragaert, Kevin Van Geem, Jo Dewulf, and Steven De Meester. 2023. “How Much Can Chemical Recycling Contribute to Plastic Waste Recycling in Europe? An Assessment Using Material Flow Analysis Modeling.” RESOURCES CONSERVATION AND RECYCLING 192. doi:10.1016/j.resconrec.2023.106916.
- Vancouver
- 1.Lase IS, Tonini D, Caro D, Albizzati PF, Cristóbal J, Roosen M, et al. How much can chemical recycling contribute to plastic waste recycling in Europe? An assessment using material flow analysis modeling. RESOURCES CONSERVATION AND RECYCLING. 2023;192.
- IEEE
- [1]I. S. Lase et al., “How much can chemical recycling contribute to plastic waste recycling in Europe? An assessment using material flow analysis modeling,” RESOURCES CONSERVATION AND RECYCLING, vol. 192, 2023.
@article{01GTBQGAEYDHD00E7FQ6FYDH1R, abstract = {{Plastic recycling rate in Europe is low, urging developments in recycling technology and strategies to increase circularity. Mechanical recycling (MR) has been the reference recycling technology for years, but in the near future chemical recycling (CR) options are expected to contribute to improve plastic circularity. This study uses a material flow analysis (MFA) at European level to provide quantitative estimates of the contribution of CR technologies to plastic recycling. Ten most used polymer types from five sectors are selected. A status quo 2018 scenario is modelled and compared to five potential future scenarios (in 2030) of plastic waste treatment, including one that only looks at improved waste collection, sorting, and MR technologies and four exploring developments of CR options. The so-called ‘missing plastics’, i.e., plastic waste generated but currently not accounted for in statistics, is considered in one of the future scenarios. The MFA results are compared by calculating four circularity indicators namely end-of-life recycling rate (EoL-RR), plastic-to-plastic rate, plasticto-chemicals rate, and plastic-to-fuels rate. The results indicate that in the most optimistic scenario the EoL-RR in 2030 is 73–80% (sum of plastic-to-plastic and plastic-to-chemical rates, excluding plastic-to-fuel rate), in which 41–46% is plastic-to-plastic from MR, 15–38% is plastic-to-plastic from CR and 19–35% is plastic-to-chemicals. The highest achievable plastic-to-plastic rate is estimated to be 61% (46% from MR and 15% from CR). In all future scenarios, the plastic-to-fuel rate is estimated to be 3–6%. The MFA results are also used to estimate potential recycled content availability in 2030, which suggest that closed-loop recycling and processing the ‘missing plastics’ will be necessary to achieve the targets.}}, articleno = {{106916}}, author = {{Lase, Irdanto Saputra and Tonini, Davide and Caro, Dario and Albizzati, Paola F. and Cristóbal, Jorge and Roosen, Martijn and Kusenberg, Marvin and Ragaert, Kim and Van Geem, Kevin and Dewulf, Jo and De Meester, Steven}}, issn = {{0921-3449}}, journal = {{RESOURCES CONSERVATION AND RECYCLING}}, keywords = {{Material flow analysis,Chemical recycling,Plastic waste,Circularity indicator,Recycled content,CIRCULAR ECONOMY,PACKAGING WASTE,PYROLYSIS OILS,GASIFICATION,OPPORTUNITIES,PERFORMANCE,MANAGEMENT}}, language = {{eng}}, pages = {{19}}, title = {{How much can chemical recycling contribute to plastic waste recycling in Europe? An assessment using material flow analysis modeling}}, url = {{http://doi.org/10.1016/j.resconrec.2023.106916}}, volume = {{192}}, year = {{2023}}, }
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