Knowledge Agora



Similar Articles

Title Learning from two meta-technologies-the grown (plastics) and the growing (EV batteries): evolution, potential challenges and considerations to manage
ID_Doc 7359
Authors Khaire, MV
Title Learning from two meta-technologies-the grown (plastics) and the growing (EV batteries): evolution, potential challenges and considerations to manage
Year 2022
Published International Journal Of Electric And Hybrid Vehicles, 14, 4
Abstract The plastic material is one of great inventions in recent times which is having numerous advantages which makes it highly adoptable. Only disadvantage of the material is it takes very long time to decompose. Landfill, waterway logging, adverse effect on biodiversity and severe impact on ocean life are key challenges of plastics. Presently BEVs technology is growing and almost all the major automotive manufacturers are having roadmap for EV. BEV's are having advantages like low operating cost, lower emission, and lower maintenance. Limited life of EV batteries generates challenges of disposal in future like plastics. This paper focuses on the learning from the plastic evolution and utilising this learning to consider EV batteries' technology development and adoption. This paper focuses on battery material recycling and suggests direction of technologies. Avoid, minimise, reuse, circular economy and disposal are considerations for future battery technology development.
PDF

Similar Articles

ID Score Article
22778 Doose, S; Mayer, JK; Michalowski, P; Kwade, A Challenges in Ecofriendly Battery Recycling and Closed Material Cycles: A Perspective on Future Lithium Battery Generations(2021)Metals, 11.0, 2
16420 Akram, MN; Abdul-Kader, W Sustainable Development Goals and End-of-Life Electric Vehicle Battery: Literature Review(2023)Batteries-Basel, 9, 7
27341 Díaz-Ramírez, MC; Ferreira, VJ; García-Armingol, T; López-Sabirón, AM; Ferreira, G Battery Manufacturing Resource Assessment to Minimise Component Production Environmental Impacts(2020)Sustainability, 12.0, 17
14445 Hu, XP; Yan, W; Zhang, XM; Feng, ZH; Wang, Y; Ying, BS; Zhang, H LRP-Based Design of Sustainable Recycling Network for Electric Vehicle Batteries(2022)Processes, 10, 2
12756 Kotak, Y; Fernández, CM; Casals, LC; Kotak, BS; Koch, D; Geisbauer, C; Trilla, L; Gómez-Núñez, A; Schweiger, HG End of Electric Vehicle Batteries: Reuse vs. Recycle(2021)Energies, 14.0, 8
33485 Sharma, B; Goswami, Y; Sharma, S; Shekhar, S Inherent roadmap of conversion of plastic waste into energy and its life cycle assessment: A frontrunner compendium(2021)
26882 Martins, LS; Guimaraes, LF; Botelho, AB; Tenorio, JAS; Espinosa, DCR Electric car battery: An overview on global demand, recycling and future approaches towards sustainability(2021)
28821 Ferrara, C; Ruffo, R; Quartarone, E; Mustarelli, P Circular Economy and the Fate of Lithium Batteries: Second Life and Recycling(2021)Advanced Energy And Sustainability Research, 2.0, 10
26151 Thompson, DL; Hartley, JM; Lambert, SM; Shiref, M; Harper, GDJ; Kendrick, E; Anderson, P; Ryder, KS; Gaines, L; Abbott, AP The importance of design in lithium ion battery recycling - a critical review(2020)Green Chemistry, 22, 22
32525 Manzetti, S; Mariasiu, F Electric vehicle battery technologies: From present state to future systems(2015)
Scroll