Integration of electronic waste management: a review of current global generation, health impact, and technologies for value recovery and its pertinent management technique

被引:0
作者
Krithiga Palanisamy
Rampradheep Gobi Subburaj
机构
[1] Kongu Engineering College,Department of Civil Engineering
来源
Environmental Science and Pollution Research | 2023年 / 30卷
关键词
Electrical and electronic equipment; Life cycle assessment; Toxic substances; Legislations; Recycling; Emerging economy;
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学科分类号
摘要
The fast evolution of waste electrical and electronic equipment (WEEE) has developed into a prime environmental perturb in recent days. Today, electrical and electronic products merely become a needed part of people life’s and professional lives. The whole process of e-waste contains an organized collection system, appropriate dismantling, and its treatment of recycling. The unparalleled hastening of e-waste and unceremonious discarding lead to an adverse impact on a country’s development. Currently, challenges in e-waste have a lack of practical aid, poor structure, and insufficient economic support. Several legislations have been imposed which aim to enhance the handling of e-waste. Operative management of e-waste is now essential for the protective atmosphere and human beings as well. This article provides the systemic flow of the e-waste definition, global information, and generation of e-waste and composition of e-waste which were discussed. The study categorized the hazardous effect of e-waste on human beings, and the content analysis of e-waste in recent LCA applications was highlighted. Further different metal extraction and recovery techniques from e-waste have been reviewed. A few sets of current practices and some recommendations on a global scale level were provided. Finally, based on analysis, some approaches to e-waste was accomplished, and equitable environmental management was taken into account to identify the future outlook areas.
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页码:63347 / 63367
页数:20
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  • [1] Ádám B(2021)From inequitable to sustainable e-waste processing for reduction of impact on human health and the environment Environ Res 194 110728-44411
  • [2] Göen T(2021)Influences of ferrous iron concentration and mixing speed on metal recovery from waste printed circuit boards using bio-Fenton process J Environ Chem Eng 9 106460-653
  • [3] Scheepers PT(2022)Fungal biotechnology for urban mining of metals from waste printed circuit boards: a review J Environ Manag 323 116133-1479
  • [4] Adliene D(2020)Ecological risk assessment of arsenic, cadmium, copper, and lead contamination in soil in e-waste separating household area, Buriram province, Thailand Environ Sci Pollut Res 27 44396-447
  • [5] Batinic B(2023)Optical and quantitative detection of cobalt ion using graphitic carbon nitride-based chemosensor for hydrometallurgy of waste lithium-ion batteries Chemosphere 315 137789-90
  • [6] Budnik LT(2022)Material flow, economic and environmental life cycle performances of informal electronic waste recycling in a Thai community Resour Convers Recycl 180 106129-132
  • [7] Duca R-C(2019)Optimal electronic waste combination for maximal recovery of Cu-Ni-Fe by Acidithiobacillus ferrooxidans J Clean Prod 240 118077-473
  • [8] Ghosh M(2021)Evaluation of soil contamination due to crude E-waste recycling activities in the capital city of India Process Saf Environ Prot 152 641-10518
  • [9] Giurgiu DI(2018)Assessment of PCBs and exposure risk to infants in breast milk of primiparae and multiparae mothers in an electronic waste hot spot and non-hot spot areas in Ghana Sci Total Environ 612 1473-231
  • [10] Godderis L(2017)Management of electrical and electronic waste: a comparative evaluation of China and India Renew Sustain Energy Rev 76 434-399