Environmental Management of Waste Electrical and Electronic Equipment 1st Edition by Chaudhery Mustansar Hussain ISBN 9780128224892 0128224894

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ISBN 10: 0128224894
ISBN 13: 9780128224892
Author: Chaudhery Mustansar Hussain

Environmental Management of Waste Electrical and Electronic Equipment illustrates the socioeconomic, technical and environmental perspectives of WEEE, allowing for a better understanding on how to manage this rapidly growing waste stream. The book addresses discharge of WEEE into ecosystems, occupational exposure to hazardous components of WEEE, and loss of recoverable resources, bridging the gap between community and waste management. By providing in-depth analysis and step-by-step descriptions of environmental strategies and procedures for managing electrical and electronic waste, this book is a valuable resource for environmental scientists, environmental engineers, and waste management professionals to achieve sustainability in WEEE.

Presents the latest knowledge on the origin, identification and adverse effects of WEEE on humans and ecosystems

Offers up-to-date analysis on environmental management tools, such as LCA, health risk, legalization, and policies for sustainable solutions for Waste Electrical and Electronic Equipment (WEEE)

Includes details and analysis of the novel approaches proposed in recent years for resource recovery from WEEE

Environmental Management of Waste Electrical and Electronic Equipment 1st Edition Table of contents:

1 : Environmental problems and management aspects of waste electrical and electronic equipment and use of clean energy for sustainable development

Abstract

Keywords

1 Introduction

2 Sources of e-waste

3 Classification of e-waste

4 Challenges of e-wastes

4.1 Impact of hazardous substances on health and environment

5 Continent-wise and country-wise generation of e-wastes

6 Management aspects of e-wastes

6.1 E-waste generation and management in China

6.2 E-waste generation and management in the United States

6.3 E-waste generation and management in Japan

6.4 E-waste generation and management in India

7 Basel convention

7.1 Overview

7.2 Objective

7.3 Aims and provisions

8 Suggestions

9 Use of clean energy for sustainable development

10 Conclusion

References

2 : Waste electrical and electronic equipment and environment: context, implications, and trends

Abstract

Keywords

1 Introduction

2 Methodology

3 Results and discussion

3.1 Evolution in the general characteristics of WEEEE research

3.2 Evolution in WEEEE research by subject discipline

3.3 Most relevant journals in WEEEE research

3.4 Most relevant countries in WEEEE research

3.5 Most relevant institutions in WEEEE research

3.6 Most relevant authors in WEEEE research

3.7 Evolution of WEEEE research

4 Conclusions

Websites about topic

Other relevant contributions

References

3 : E-waste: an emerging threat to “one health”

Abstract

Keywords

1 Introduction

2 E-waste generation

2.1 Global context

2.2 Indian context

3 Impact on “One Health”

4 E-waste management and policy level initiatives in India

5 Conclusion

References

Further reading

4 : Microbe-assisted management and recovery of heavy metals from electronic wastes

Abstract

Keywords

1 Introduction

2 Composition of WEEE

3 Environment concerns and health hazards

4 Burgeoning burden of e-waste

5 WEEE management strategies

5.1 Landfilling

5.2 Incineration

5.3 Transboundary shipment

5.4 Recycling

5.5 Reuse

6 Metallurgical processing of WEEE

6.1 Pyrometallurgical processes

6.2 Hydrometallurgical methods

6.3 Electrometallurgical processes

6.4 Biometallurgical processes

7 Conclusion

References

Websites

5 : Biohydrometallurgical methods and the processes involved in the bioleaching of WEEE

Abstract

Keywords

1 Biological management of e-waste

2 Biohydrometallurgy for e-waste treatment

3 Modes of biohydrometallurgy

3.1 Contact mechanism

3.2 Noncontact mechanism

4 Processes involved in biohydrometallurgy

4.1 Bioleaching

4.2 Biooxidation-reduction

4.3 Biosorption

4.4 Bioaccumulation

4.5 Bioprecipitation

5 Bioleaching methods

5.1 One-step bioleaching

5.2 Two-step bioleaching

5.3 Spent medium bioleaching

6 Sequential batch bioleaching

7 Conclusion

References

6 : Hybrid bioleaching—an emerging technique for extraction of critical metals from WEEE

Abstract

Keywords

1 Introduction

2 Occurrence of critical metals in PCBs

3 Overview of hybrid bioleaching process

4 Applicability of hybrid bioleaching for extraction of critical metals from WEEE

5 SWOT analysis

6 Future perspectives

7 Conclusions

References

7 : Current trends and future perspectives of biobased methods for recovery of metals from WEEE for a sustainable environment

Abstract

Keywords

1 Introduction

1.1 Toxicants

2 Modeling and simulation studies regarding chemical and physical methods

2.1 Recycling of e-waste by chemical methods

2.1.1 Recycling of e-waste by pyrolysis

2.1.2 Recycling of e-waste by hydrometallurgical method

2.2 Recycling of e-waste by physical methods

3 Alternative technology to recycle metals from e-waste

3.1 Cyanogenic bacteria for gold recovery

3.1.1 Chromobacterium violaceum

3.1.2 Genus pseudomonas

3.1.2.1 P. fluorescens

3.2 Bioleaching process on lithium-ion batteries

4 Current trends and future prospectus

References

Websites

8 : Recycling of e-waste in concrete

Abstract

Keywords

Acknowledgments

1 An introduction to concrete

2 Environmental impacts of concrete

3 Importance of e-waste management

4 E-waste in concrete

4.1 Cathode ray tubes recycling in concrete

4.2 LCD recycling in concrete

4.3 Plastic recycling in concrete

4.4 Printed circuit board recycling in concrete

4.5 Wire recycling in concrete

5 Conclusions

References

9 : Biological treatment, recovery, and recycling of metals from waste printed circuit boards

Abstract

Keywords

1 Introduction

2 Classification, toxicity, and impact of WPCBs

2.1 WEEE metal composition

2.2 Toxicity

2.3 Environmental impacts

3 Bio-based technologies for recovering metallic resources from waste PCBs

3.1 Mechanisms of bioleaching

3.1.1 Acidolysis

3.1.2 Redoxolysis

3.1.3 Complexolysis

3.2 Microbes for bioleaching

3.2.1 Autotrophic microbial bioleaching

3.2.2 Heterotrophic microbial bioleaching

3.2.3 Fungal bioleaching

3.3 Bioleaching of base metals

3.4 Factors affecting the bioleaching of base metals

3.5 Bioleaching of precious metals

4 Effect of process factors for the bioleaching of precious metals

5 Future perspective and challenges

6 Conclusions

References

10 : Process engineering for bioleaching of metals from waste electrical and electronic equipment

Abstract

Keywords

1 Introduction

2 Principles of metal bioleaching

3 Microbiology involved in metal bioleaching

4 Application of bioprocess engineering for metal bioleaching from WEEE

5 Modes of bioreactor operation for metal bioleaching from WEEE

5.1 Batch operation

5.2 Fed-batch operation

5.3 Continuous operation

6 Bioreactor design for bioleaching of metals from WEEE

6.1 Column bioreactor

6.2 Stirred tank bioreactor

6.3 Packed-bed bioreactor

6.4 Other bioreactor configurations

7 Limitations of bioprocessing of WEEE

8 Conclusions and future perspectives

References

11 : Financial stimulation policy as a part of socioeconomic intervention in the area of waste electrical and electronic equipment recycling

Abstract

Keywords

1 Introduction

2 Socioeconomic and legislative ambience in the area of WEEE recycling

3 Socioeconomic benefits in waste electrical and electronic equipment recycling

4 Socioeconomic intervention in the area of waste electrical and electronic equipment in the Republic of Serbia

5 Conclusion

References

Further reading

12 : Achievement of sustainability by tackling e-waste overpower

Abstract

Keywords

Acknowledgments

1 Introduction

2 Sources of e-waste

3 Impacts of WEEE

4 Impacts on atmosphere

5 Impacts on soil

6 Impacts on ecosystem

7 Impact on human beings

8 Legal framework for waste management

9 Existing EU laws

10 UN e-waste coalition

11 The e-waste management and handling rules, 2011

12 E-waste management rules, 2016

13 Amendment to the E-Waste Management Rules, 2018

14 WEEE management strategies

15 Case study Switzerland

16 Conclusion

References

Further reading

13 : Advances in global research on the sustainable management of waste electrical and electronic equipment

Abstract

Keywords

Acknowledgments

1 Introduction

2 Methodology

3 Results and discussion

3.1 Evolution in the general characteristics of SMWEEE research

3.2 Evolution in SMWEEE research by subject discipline

3.3 Most relevant journals in SMWEEE research

3.4 Most relevant countries in SMWEEE research

3.5 Most relevant institutions in SMWEEE research

3.6 Most relevant authors in SMWEEE research

3.7 Sustainability aspects

4 Conclusions

References

Websites about topic

Other relevant contributions

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Tags: Chaudhery Mustansar Hussain, Environmental Management, Waste Electrical