Life cycle-based environmental, social, and economic assessment of waste printed circuit board management in isolated island areas: A case study in British Columbia, Canada

The rapid increase in the use of electronic equipment has led to a significant rise in waste printed circuit boards (WPCBs), which can pose severe environmental risks if not properly managed. This study evaluates the environmental, social, and economic performances of four WPCB management scenarios for island communities, using a comprehensive framework that combines Life Cycle Assessment (LCA) and Multi-Criteria Decision Analysis (MCDA). When constructing the scenarios, scenario 1 considered the mechanical separation of WPCBs with subsequent recycling of the metallic fractions and direct landfilling of the non-metallic fractions. In scenario 2, compared to scenario 1, the non-metallic fractions are incinerated before landfilling. Scenarios 3 and 4 involve the direct incineration and direct landfilling of the entire WPCBs, respectively. The results indicate that scenario 1 is the most favorable option. It yields the highest positive environmental (-4,720 kg CO 2 eq. per tonne of WPCBs) and social (-30,679 ELU per tonne of WPCBs) impact while remaining economically viable. In contrast, scenario 3 exhibits the most significant negative impacts across all subcategories, and one-tonne WPCBs can contribute 2,750 kg CO 2 eq. and 729 ELU in environmental and social perspectives in this case, respectively. The study emphasizes the importance of metal recovery processes in achieving sustainable WPCB management and provides critical insights for policymakers and waste management professionals in isolated island areas. This framework offers a robust tool for optimizing WPCB disposal systems, balancing the trade-offs between environmental sustainability, social impacts, and economic costs, and guiding future practices and policies in e-waste management. • Precious metals recovered from WPCBs offer considerable economic benefits. • Metal recovery and incineration significantly affect WPCB disposal impacts. • On islands, shorter transport distances and higher recycling rates are optimal. • Incineration and landfilling are simpler but do not provide long-term sustainability.

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Publication Details

Journal
Environmental Development
Published
2025-03-09
DOI
https://doi.org/10.1016/j.envdev.2025.101195
Citations
1
Primary Topic
Recycling and Waste Management Techniques
Type
article
Field-Weighted Citation Impact
1.00

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article

Life cycle-based environmental, social, and economic assessment of waste printed circuit board management in isolated island areas: A case study in British Columbia, Canada

Guohe Huang, Linxiang Lyu, Ziyu Wang, Chunjiang An et al.
1 citations
Environmental Development
Recycling and Waste Management Techniques
1.00
article

Life cycle-based environmental, social, and economic assessment of waste printed circuit board management in isolated island areas: A case study in British Columbia, Canada

Guohe Huang, Linxiang Lyu, Ziyu Wang, Chunjiang An, B. Y. Hu
article en
1 citations

Abstract

The rapid increase in the use of electronic equipment has led to a significant rise in waste printed circuit boards (WPCBs), which can pose severe environmental risks if not properly managed. This study evaluates the environmental, social, and economic performances of four WPCB management scenarios for island communities, using a comprehensive framework that combines Life Cycle Assessment (LCA) and Multi-Criteria Decision Analysis (MCDA). When constructing the scenarios, scenario 1 considered the mechanical separation of WPCBs with subsequent recycling of the metallic fractions and direct landfilling of the non-metallic fractions. In scenario 2, compared to scenario 1, the non-metallic fractions are incinerated before landfilling. Scenarios 3 and 4 involve the direct incineration and direct landfilling of the entire WPCBs, respectively. The results indicate that scenario 1 is the most favorable option. It yields the highest positive environmental (-4,720 kg CO 2 eq. per tonne of WPCBs) and social (-30,679 ELU per tonne of WPCBs) impact while remaining economically viable. In contrast, scenario 3 exhibits the most significant negative impacts across all subcategories, and one-tonne WPCBs can contribute 2,750 kg CO 2 eq. and 729 ELU in environmental and social perspectives in this case, respectively. The study emphasizes the importance of metal recovery processes in achieving sustainable WPCB management and provides critical insights for policymakers and waste management professionals in isolated island areas. This framework offers a robust tool for optimizing WPCB disposal systems, balancing the trade-offs between environmental sustainability, social impacts, and economic costs, and guiding future practices and policies in e-waste management. • Precious metals recovered from WPCBs offer considerable economic benefits. • Metal recovery and incineration significantly affect WPCB disposal impacts. • On islands, shorter transport distances and higher recycling rates are optimal. • Incineration and landfilling are simpler but do not provide long-term sustainability.

Environmental DevelopmentVol. 55
University of Regina (CA), University of Victoria (CA), Concordia University (CA)
Concordia University, Natural Sciences and Engineering Research Council of Canada
Responsible consumption and production
Openalex Percentile: Top 25%
Recycling and Waste Management Techniques
1.00
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