Spatiotemporal dynamics of city-level WEEE generation from different sources in China

Wanjun WANG , Yupeng LIU , Kuishuang FENG , Wei-Qiang CHEN

Front. Eng ›› 2024, Vol. 11 ›› Issue (2) : 181 -193.

PDF (7470KB)
Front. Eng ›› 2024, Vol. 11 ›› Issue (2) : 181 -193. DOI: 10.1007/s42524-024-0310-8
Urban Management: Developing Sustainable, Resilient, and Equitable Cities Co-edited by Wei-Qiang CHEN, Hua CAI, Benjamin GOLDSTEIN, Oliver HEIDRICH and Yu LIU
RESEARCH ARTICLE

Spatiotemporal dynamics of city-level WEEE generation from different sources in China

Author information +
History +
PDF (7470KB)

Abstract

China stands as one of the leading producers of waste electrical and electronic equipment (WEEE), facing significant challenges in managing the substantial volumes generated. Despite existing regulations, the informal treatment of WEEE persists in some areas due to inadequate recycling networks at the city level. Consequently, there is a critical need for a detailed geographical mapping of WEEE generation to address improper disposal practices effectively. This study introduces the cMAC – EEEs (city Material Cycles and Manufactured Capital – EEEs) database, providing estimates of WEEE generation across approximately 300 prefecture-level cities from 1978 to 2017. It focuses on five commonly used types of electrical and electronic equipment (refrigerators, air conditioners, washing machines, computers, TVs) originating from three key sources (urban residents, rural residents, enterprises). The findings reveal (1) significant spatial variation in WEEE generation within China, with eastern and central city clusters identified as hotspots, particularly for urban residents and enterprises, while the western region exhibits the highest growth rate in WEEE generation, notably among rural residents. (2) The growth in obsolete computers and air conditioners is prominent, especially in rural areas and among enterprises, whereas the generation of obsolete TVs, washing machines, and refrigerators is leveling off and expected to decrease in some urban areas. (3) Enterprises account for a substantial portion of WEEE generation, though uncertainties exist, necessitating further refinement. The study highlights that less developed regions lack adequate recycling facilities, with specific limitations in refrigerators and air conditioners recycling capabilities. To enhance WEEE management, it advocates for increased interregional collaboration and capacity building in less developed areas. Additionally, the regulation of WEEE from private enterprises requires improvement. At the product level, a greater focus on recycling practices for refrigerators and air conditioners is recommended.

Graphical abstract

Keywords

WEEE / obsolete electrical and electronic equipment / urban mining / waste management / industrial ecology

Cite this article

Download citation ▾
Wanjun WANG, Yupeng LIU, Kuishuang FENG, Wei-Qiang CHEN. Spatiotemporal dynamics of city-level WEEE generation from different sources in China. Front. Eng, 2024, 11(2): 181-193 DOI:10.1007/s42524-024-0310-8

登录浏览全文

4963

注册一个新账户 忘记密码

References

[1]

Abbondanza, M N M Souza, R G (2019). Estimating the generation of household e-waste in municipalities using primary data from surveys: A case study of Sao Jose dos Campos, Brazil. Waste Management, 85: 374–384

[2]

Althaf, S Babbitt, C W Chen, R (2019). Forecasting electronic waste flows for effective circular economy planning. Resources, Conservation and Recycling, 151: 104362

[3]

BaldéC PFortiVGrayV KuehrRStegmann P (2017). The global e-waste monitor—2017: Quantities, flows, and resources

[4]

Biggeri, M Bortolotti, L (2020). Towards a ‘harmonious society’? Multidimensional development and the convergence of Chinese provinces. Regional Studies, 54( 12): 1655–1667

[5]

Binder, C Bader, H P Scheidegger, R Baccini, P (2001). Dynamic models for managing durables using a stratified approach: The case of Tunja, Colombia. Ecological Economics, 38( 2): 191–207

[6]

Cao, J Chen, Y Shi, B Lu, B Zhang, X Ye, X Zhai, G Zhu, C Zhou, G (2016). WEEE recycling in Zhejiang province, China: Generation, treatment, and public awareness. Journal of Cleaner Production, 127: 311–324

[7]

CHEARI (2019). White paper on WEEE recycling industry in China 2018. Beijing, China

[8]

CHEARI (2020). White paper on WEEE recycling industry in China (2019). Beijing, China

[9]

Chen, X Li, F Zhang, J Zhou, W Wang, X Fu, H (2020). Spatiotemporal mapping and multiple driving forces identifying of PM2.5 variation and its joint management strategies across China. Journal of Cleaner Production, 250: 119534

[10]

Chi, X Wang, M Y Reuter, M A (2014). E-waste collection channels and household recycling behaviors in Taizhou of China. Journal of Cleaner Production, 80: 87–95

[11]

Davis, L W Gertler, P J (2015). Contribution of air conditioning adoption to future energy use under global warming. Proceedings of the National Academy of Sciences of the United States of America, 112( 19): 5962–5967

[12]

Duan, H Hu, J Tan, Q Liu, L Wang, Y Li, J (2016). Systematic characterization of generation and management of e-waste in China. Environmental Science and Pollution Research International, 23( 2): 1929–1943

[13]

Duan, H Miller, T R Liu, G Zeng, X Yu, K Huang, Q Zuo, J Qin, Y Li, J (2018). Chilling prospect: Climate change effects of mismanaged refrigerants in China. Environmental Science & Technology, 52( 11): 6350–6356

[14]

FortiVBaldé C PKuehrRBelG (2020). The global e-waste monitor 2020: Quantities, flows and the circular economy potential. Bonn/Geneva/Rotterdam

[15]

Gonda, L D’Ans, P Degrez, M (2019). A comparative assessment of WEEE collection in an urban and rural context: Case study on desktop computers in Belgium. Resources, Conservation and Recycling, 142: 131–142

[16]

Gu, Y Wu, Y Xu, M Mu, X Zuo, T (2016). Waste electrical and electronic equipment (WEEE) recycling for a sustainable resource supply in the electronics industry in China. Journal of Cleaner Production, 127: 331–338

[17]

Habuer, N Nakatani, J Moriguchi, Y (2014). Time-series product and substance flow analyses of end-of-life electrical and electronic equipment in China. Waste Management, 34( 2): 489–497

[18]

Huang, H Tong, X Cai, Y Tian, H (2020). Gap between discarding and recycling: Estimate lifespan of electronic products by survey in formal recycling plants in China. Resources, Conservation and Recycling, 156: 104700

[19]

Li, B Yang, J Lu, B Song, X L (2015). Temporal and spatial variations of retired mobile phones in China. Acta Scientiae Circumstantiae, 35( 12): 4095–4101

[20]

Li, C Z Wei, C Yu, Y (2020a). Income threshold, household appliance ownership and residential energy consumption in urban China. China Economic Review, 60: 101397

[21]

Li, J Song, X Yang, D Li, B Lu, B (2020b). Simulating the interprovincial movements of waste mobile phones in China based on the current disassembly capacity. Journal of Cleaner Production, 244: 118776

[22]

Li, J X Huang, C Zhu, Y Huang, S (2011). WEEE management in Chongqing, China: Status and strategies. Advanced Materials Research, 414: 39–44

[23]

Li, W Achal, V (2020). Environmental and health impacts due to e-waste disposal in China—A review. Science of the Total Environment, 737: 139745

[24]

Liu, X Tanaka, M Matsui, Y (2006). Generation amount prediction and material flow analysis of electronic waste: A case study in Beijing, China. Waste Management & Research, 24( 5): 434–445

[25]

MIIT (2010). Catalog of WEEE Recycling (1st ed.)

[26]

MIIT (2014). Catalog of WEEE Recycling (2nd ed.)

[27]

MüllerESchluepMWidmerR GottschalkFBöni H (2009). Assessment of e-waste flows: A probabilistic approach to quantify e-waste based on world ICT and development indicators. In R’09 World Congress, 14–16

[28]

Murakami, S Oguchi, M Tasaki, T Daigo, I Hashimoto, S (2010). Lifespan of commodities, Part I. Journal of Industrial Ecology, 14( 4): 598–612

[29]

National bureau of statistics of China (NBSC) (2002/04/19). Classifications and Methods

[30]

National bureau of statistics of China (NBSC) (2017). Codes for the administrative regions of P. R. China

[31]

National bureau of statistics of China (NBSC) (2020). China City Statistical Yearbook 2019. Beijing, China: China Statistics Press

[32]

Nowakowski, P Mrówczyńska, B (2018). Towards sustainable WEEE collection and transportation methods in circular economy—Comparative study for rural and urban settlements. Resources, Conservation and Recycling, 135: 93–107

[33]

Ouyang, Z Zheng, H Xiao, Y Polasky, S Liu, J Xu, W Wang, Q Zhang, L Xiao, Y Rao, E Jiang, L Lu, F Wang, X Yang, G Gong, S Wu, B Zeng, Y Yang, W Daily, G C (2016). Improvements in ecosystem services from investments in natural capital. Science, 352( 6292): 1455–1459

[34]

Qu, Y Zhu, Q Sarkis, J Geng, Y Zhong, Y (2013). A review of developing an e-wastes collection system in Dalian, China. Journal of Cleaner Production, 52: 176–184

[35]

Rautela, R Arya, S Vishwakarma, S Lee, J Kim, K H Kumar, S (2021). E-waste management and its effects on the environment and human health. Science of the Total Environment, 773: 145623

[36]

Song, Q Li, J Liu, L Dong, Q Yang, J Liang, Y Zhang, C (2016). Measuring the generation and management status of waste office equipment in China: A case study of waste printers. Journal of Cleaner Production, 112: 4461–4468

[37]

Sun, N Wang, P Jian, X Hao, M Yan, X Chen, W Q (2022). Material Flow analysis of plastics from provincial household appliances in China: 1978–2016. Waste Management, 153: 156–166

[38]

SunY (2017). Research on rural household’s waste household appliances in Henan province. Xinxiang, Henan

[39]

Tian, X Wu, Y Qu, S Liang, S Xu, M Zuo, T (2018). Modeling domestic geographical transfers of toxic substances in WEEE: A case study of spent lead-acid batteries in China. Journal of Cleaner Production, 198: 1559–1566

[40]

Tong, X Wang, T Chen, Y Wang, Y (2018). Towards an inclusive circular economy: Quantifying the spatial flows of e-waste through the informal sector in China. Resources, Conservation and Recycling, 135: 163–171

[41]

UnitedNations (2020). World Economic Situation and Prospects. New York

[42]

Walk, W (2009). Forecasting quantities of disused household CRT appliances—A regional case study approach and its application to Baden-Württemberg. Waste Management, 29( 2): 945–951

[43]

Wang, J Mishima, N (2019). Province-level estimation of waste mobile phones in China and location planning of recycling centers. Waste Management & Research, 37( 9): 898–905

[44]

Wei, S J Xie, Z Zhang, X (2017). From “Made in China” to “Innovated in China”: Necessity, prospect, and challenges. Journal of Economic Perspectives, 31( 1): 49–70

[45]

Zeng, X Ali, S H Li, J (2021). Estimation of waste outflows for multiple product types in China from 2010–2050. Scientific Data, 8( 1): 15

[46]

Zeng, X Duan, H Wang, F Li, J (2017). Examining environmental management of e-waste: China’s experience and lessons. Renewable & Sustainable Energy Reviews, 72: 1076–1082

[47]

Zeng, X Gong, R Chen, W Q Li, J (2016). Uncovering the Recycling Potential of “New” WEEE in China. Environmental Science & Technology, 50( 3): 1347–1358

[48]

Zhang, L Yuan, Z Bi, J (2011). Predicting future quantities of obsolete household appliances in Nanjing by a stock-based model. Resources, Conservation and Recycling, 55( 11): 1087–1094

[49]

Zhang, Z Wang, A Li, H (2020). What matters for the overall reduction of multidimensional poverty? Evidence from rural China. Applied Economics Letters, 27( 20): 1685–1690

RIGHTS & PERMISSIONS

Higher Education Press

AI Summary AI Mindmap
PDF (7470KB)

Supplementary files

FEM-23110-of-WQC_suppl_1

2293

Accesses

0

Citation

Detail

Sections
Recommended

AI思维导图

/