Knowledge Agora



Similar Articles

Title Low carbon biodegradable polymer matrices for sustainable future
ID_Doc 13975
Authors Amulya, K; Katakojwala, R; Ramakrishna, S; Mohan, SV
Title Low carbon biodegradable polymer matrices for sustainable future
Year 2021
Published
Abstract One of the crowning glories of 20th century was the development of petroleum-based plastics. Eighty years later, with pioneering advances and series of breakthroughs in research and industrial innovations, plastics have become an integral part of our everyday lives. While the applications of plastics are multifarious, their unrestricted disposal is causing damage to the ecosystem services and biodiversity. Furthermore, the plastic economy entirely relies on non-renewable, climate-changing petrochemical resources. A circular economy (CE), which aims to retain plastics at their highest value for a longest period of time in the system is one of the strategies to overcome these challenges. The present article discusses about strategies that can be employed to incorporate circularity and concepts of CE in plastics production systems. It emphasizes that although CE aims at design out waste, it needs to go a step ahead and also consider the impact of raw materials, the entire product value chain and end-of life options to achieve sustainability. It captures the emerging area of biodegradable low carbon polymers from renewable resources with an emphasis on technical and environmental advantages that contribute to the reduction in carbon footprints. Research carried out from a sustainability standpoint by considering CO2 emissions right from production stage to end-of-life that helps in achieving a low carbon economy is reviewed. Some challenges that need to be addressed for future work, the potential role of sustainability analysis in enhancing the use of biopolymers are summarized. Furthermore, it sheds light on integrating a low carbon economy with the CE to achieve a holistic and sustainable plastics production value chain.
PDF https://doi.org/10.1016/j.jcomc.2021.100111

Similar Articles

ID Score Article
16868 Sheldon, RA; Norton, M Green chemistry and the plastic pollution challenge: towards a circular economy(2020)Green Chemistry, 22, 19
889 Bucknall, DG Plastics as a materials system in a circular economy(2020)Philosophical Transactions Of The Royal Society A-Mathematical Physical And Engineering Sciences, 378, 2176
24534 von Vacano, B; Mangold, H; Seitz, C The Time is ripe Plastics in the Cycle(2021)Chemie In Unserer Zeit, 55, 6
17081 Schirmeister, CG; Mülhaupt, R Closing the Carbon Loop in the Circular Plastics Economy(2022)Macromolecular Rapid Communications, 43, 13
3156 Rosenboom, JG; Langer, R; Traverso, G Bioplastics for a circular economy(2022)Nature Reviews Materials, 7, 2
25483 Ali, SS; Abdelkarim, EA; Elsamahy, T; Al-Tohamy, R; Li, FH; Kornaros, M; Zuorro, A; Zhu, DC; Sun, JZ Bioplastic production in terms of life cycle assessment: A state-of-the- art review(2023)
28361 Spierling, S; Röttger, C; Venkatachalam, V; Mudersbach, M; Herrmann, C; Endres, HJ Bio-based Plastics - A Building Block for the Circular Economy?(2018)
2044 Kawashima, N; Yagi, T; Kojima, K How Do Bioplastics and Fossil-Based Plastics Play in a Circular Economy?(2019)Macromolecular Materials And Engineering, 304, 9
4117 Elgarahy, AM; Priya, AK; Mostafa, HY; Zaki, EG; Elsaeed, SM; Muruganandam, M; Elwakeel, KZ Toward a circular economy: Investigating the effectiveness of different plastic waste management strategies: A comprehensive review(2023)Journal Of Environmental Chemical Engineering, 11, 5
21380 Skoczinski, P; Krause, L; Raschka, A; Dammer, L; Carus, M Current status and future development of plastics: Solutions for a circular economy and limitations of environmental degradation(2021)
Scroll