This document discusses the growing problem of e-waste in India. It notes that India generates over 1.8 million tons of e-waste annually, which is estimated to double by 2020. E-waste includes discarded electronics like computers, phones, TVs, and contains both hazardous and non-hazardous components. There is no proper system for tracking, collecting, and processing e-waste in India, so most recycling is done informally and unsafely by the unorganized sector, causing environmental damage and health hazards. The document calls for increased awareness and regulation to properly manage India's large and increasing amounts of e-waste.
Electronic waste (e-waste) is a rapidly growing problem globally and in India. An estimated 50 million tons of e-waste are produced each year worldwide, with most not being recycled properly. India's e-waste is projected to increase by 500% over the next decade. Currently, 95% of India's e-waste is handled by the informal sector in unsafe recycling operations, while only 5% is managed formally. The government of India has established rules and enforcement agencies to better regulate and manage e-waste, but challenges remain in addressing this significant issue.
Tech Waste: Environmental Impact and ManagementEditor IJCATR
Over the recent years, the global market of electrical and electronic equipment (EEE) has grown rapidly, while the products
lifespan has become increasingly shorter. The rapid growth of the electronic and IT industry, current user’s culture, increasing rates of
usage of techno products have led to disastrous environmental consequences. Most of these technologies are ending up in backlash
and recycling centres, posing a new environmental challenge in this 21st century. The presence of hazardous and toxic substances in
electronic goods has made tech waste a matter of fear and if not properly managed, it can have unfavourable effects on environment. It
has been proven that some of the waste contain many cancer-causing agents. This paper provides a review of the tech waste problems
and the need for its appropriate management
This document discusses e-waste management. It begins with an introduction that describes how electronic waste has increased due to short product lifecycles and advancing technology. Most e-waste ends up in landfills, but it can be partially recycled due to its material composition. The document then discusses how e-waste differs from other waste due to its dangerous and valuable materials. It notes that while recycling can retrieve metals, e-waste recycling is mostly done in Asia using unsafe methods. The document concludes by discussing environmental problems caused by e-waste and technological changes to reduce such impacts.
This document discusses e-waste in India. It notes that while advances in electronics have greatly benefited society, they have also led to a massive amount of hazardous e-waste being generated. E-waste is growing rapidly in India as the electrical and electronics industries have expanded greatly. However, e-waste is currently not being managed properly, as most recycling is done by the informal sector without adequate safety measures. Stricter regulations and formal recycling systems need to be implemented to deal with e-waste in an environmentally sound manner and reduce health risks.
Integration of Knowledge Electronic WasteMelinda Lugo
The document discusses the issue of electronic waste (e-waste) and its environmental impacts. E-waste contains toxic and non-biodegradable components that harm the environment and human health when disposed of improperly. A study of college students found that most were unaware of e-waste issues prior to an educational intervention. After learning about e-waste, most students said they would be likely to change their disposal habits to more environmentally friendly options like recycling. Continued education efforts are needed to further address e-waste and promote sustainable practices.
Environmental Impact of Burning Electrical and Electronic Componentsresearchinventy
Electronic waste (e-waste) has been an increasing problem facing the global village. Much of the problem is due to the profligate disposal and burning of these devices without consideration to the municipality’s ability to handle the volume of waste streams that are generated or the effects of the gases released during the burning process. The burning is used as a processing pathway to recovering some of the components of these devices as well as to reduce their volumes to more manageable levels in order to facilitate final disposal as incinerator ash. This paper highlights the effects of burning electronic waste on the local environment. It was found that due to the burning of these e-wastes, there is a tremendous and harmful impact to both the health of the local population as well as that of the environment, particularly the aquatic habitat. Thus, necessitating the need for robust and speedy implementation of legislative oversight in order to ensure a sustainable and long lasting relationship between man and the environment. Some of these laws have been highlighted in this report.
This document provides a literature review on the economic and environmental impacts of electronic waste (e-waste). It discusses how e-waste production is increasing globally but most is improperly disposed of, polluting the environment. Developing countries import much of the world's e-waste but lack regulations, leading to unsafe recycling practices. Potential solutions discussed include manufacturers taking responsibility for recycling, taxes to fund recycling programs, banning e-waste exports, and investing in safe recycling technologies in developing countries.
This document discusses e-waste (electronic waste) management and the need for educational strategies around reducing, reusing, and recycling e-waste for sustainable development. It provides an overview of what constitutes e-waste and the health hazards it poses if improperly disposed. It also discusses practices being used globally to address the e-waste problem, such as extended producer responsibility and design for the environment. The document emphasizes that education is one of the most important practices for effectively dealing with the growing e-waste stream. It argues that comprehensive education strategies are needed in both developed and developing countries to increase understanding of e-waste's environmental and health impacts.
Electronic waste (e-waste) is a rapidly growing problem globally and in India. An estimated 50 million tons of e-waste are produced each year worldwide, with most not being recycled properly. India's e-waste is projected to increase by 500% over the next decade. Currently, 95% of India's e-waste is handled by the informal sector in unsafe recycling operations, while only 5% is managed formally. The government of India has established rules and enforcement agencies to better regulate and manage e-waste, but challenges remain in addressing this significant issue.
Tech Waste: Environmental Impact and ManagementEditor IJCATR
Over the recent years, the global market of electrical and electronic equipment (EEE) has grown rapidly, while the products
lifespan has become increasingly shorter. The rapid growth of the electronic and IT industry, current user’s culture, increasing rates of
usage of techno products have led to disastrous environmental consequences. Most of these technologies are ending up in backlash
and recycling centres, posing a new environmental challenge in this 21st century. The presence of hazardous and toxic substances in
electronic goods has made tech waste a matter of fear and if not properly managed, it can have unfavourable effects on environment. It
has been proven that some of the waste contain many cancer-causing agents. This paper provides a review of the tech waste problems
and the need for its appropriate management
This document discusses e-waste management. It begins with an introduction that describes how electronic waste has increased due to short product lifecycles and advancing technology. Most e-waste ends up in landfills, but it can be partially recycled due to its material composition. The document then discusses how e-waste differs from other waste due to its dangerous and valuable materials. It notes that while recycling can retrieve metals, e-waste recycling is mostly done in Asia using unsafe methods. The document concludes by discussing environmental problems caused by e-waste and technological changes to reduce such impacts.
This document discusses e-waste in India. It notes that while advances in electronics have greatly benefited society, they have also led to a massive amount of hazardous e-waste being generated. E-waste is growing rapidly in India as the electrical and electronics industries have expanded greatly. However, e-waste is currently not being managed properly, as most recycling is done by the informal sector without adequate safety measures. Stricter regulations and formal recycling systems need to be implemented to deal with e-waste in an environmentally sound manner and reduce health risks.
Integration of Knowledge Electronic WasteMelinda Lugo
The document discusses the issue of electronic waste (e-waste) and its environmental impacts. E-waste contains toxic and non-biodegradable components that harm the environment and human health when disposed of improperly. A study of college students found that most were unaware of e-waste issues prior to an educational intervention. After learning about e-waste, most students said they would be likely to change their disposal habits to more environmentally friendly options like recycling. Continued education efforts are needed to further address e-waste and promote sustainable practices.
Environmental Impact of Burning Electrical and Electronic Componentsresearchinventy
Electronic waste (e-waste) has been an increasing problem facing the global village. Much of the problem is due to the profligate disposal and burning of these devices without consideration to the municipality’s ability to handle the volume of waste streams that are generated or the effects of the gases released during the burning process. The burning is used as a processing pathway to recovering some of the components of these devices as well as to reduce their volumes to more manageable levels in order to facilitate final disposal as incinerator ash. This paper highlights the effects of burning electronic waste on the local environment. It was found that due to the burning of these e-wastes, there is a tremendous and harmful impact to both the health of the local population as well as that of the environment, particularly the aquatic habitat. Thus, necessitating the need for robust and speedy implementation of legislative oversight in order to ensure a sustainable and long lasting relationship between man and the environment. Some of these laws have been highlighted in this report.
This document provides a literature review on the economic and environmental impacts of electronic waste (e-waste). It discusses how e-waste production is increasing globally but most is improperly disposed of, polluting the environment. Developing countries import much of the world's e-waste but lack regulations, leading to unsafe recycling practices. Potential solutions discussed include manufacturers taking responsibility for recycling, taxes to fund recycling programs, banning e-waste exports, and investing in safe recycling technologies in developing countries.
This document discusses e-waste (electronic waste) management and the need for educational strategies around reducing, reusing, and recycling e-waste for sustainable development. It provides an overview of what constitutes e-waste and the health hazards it poses if improperly disposed. It also discusses practices being used globally to address the e-waste problem, such as extended producer responsibility and design for the environment. The document emphasizes that education is one of the most important practices for effectively dealing with the growing e-waste stream. It argues that comprehensive education strategies are needed in both developed and developing countries to increase understanding of e-waste's environmental and health impacts.
E-waste is a major problem world wide. Therefore managing e-waste becomes challenged. This Slides describes the sources through which e-waste is generated and its consequence on human health. it also describes the major country and city generating most e-waste. Generation of e-waste can be reduce and the same is describe in this presentation. Part 2 of this will be uploaded soon. all the data is taken from journals and from internet. Suggestions are invited. Special Thank you to Dr. Rajesh Timane.
Thank you
In this research paper, researcher has tried to focus on What is present scenario of E waste management in India & What are the procedures and methods used in its handling?
E-waste refers to electronic products that are near or at the end of their useful life. It contains toxic materials like lead, cadmium, and mercury that can harm the environment and human health. The amount of e-waste is increasing rapidly as electronics usage grows. Most e-waste in India is handled by the informal sector using unsafe methods. Proper e-waste management includes collection, sorting, recycling, and treatment to safely handle toxins. The government is working with organizations and implementing regulations, but increased awareness and producer responsibility are still needed to address this challenging waste stream.
This document discusses e-waste, which is defined as discarded electrical and electronic equipment. It notes that e-waste is one of the fastest growing waste streams due to high obsolescence rates of electronics. E-waste contains toxic components like lead, cadmium, and mercury if improperly treated or discarded. Developed countries generate most e-waste but export it to developing countries in violation of international agreements. In India, e-waste is illegally imported and then crudely recycled, polluting the environment due to a lack of regulation. The document classifies e-waste and examines its composition and the health effects of some common toxic components like lead, cadmium, and mercury.
"The effects of e-waste result in damage to our environment and our health. The best way to minimize this is to produce less of it.
This is from an article that appeared on All Green Website: http://www.allgreenrecycling.com/blog/effects-of-e-waste/"
The document discusses a study on public awareness and knowledge of electronic waste (e-waste) and its environmental impacts. A survey of 56 adults found that most disposed of electronics by recycling or storing them, showing some awareness. However, many lacked knowledge of local e-waste recycling sites. While half had prior e-waste knowledge, educating participants increased the percentage who would change disposal methods to be more environmentally friendly. Thus, greater public education may help address the growing e-waste problem.
The document discusses the growing problem of electronic waste (e-waste) around the world. It notes that e-waste contains toxic chemicals like lead, mercury, and cadmium. Many outdated electronic devices from developed countries are illegally exported and processed in places like Guiyu, China, exposing residents to health risks from pollution. While efforts have been made to improve recycling and reduce dumping, more action is needed as electronic device usage increases globally. Consumers are encouraged to properly recycle devices and choose upgrades over new purchases to reduce e-waste.
The document discusses the growing problem of electronic waste globally and in the United States. While regulations and recycling aim to address the issue, some e-waste recycling companies export waste to developing countries, where informal and unregulated recycling harms human and environmental health. The document recommends choosing e-Steward certified or original manufacturer recyclers to ensure waste stays local and is properly handled.
This document discusses electronic waste (e-waste), its sources and characteristics. It notes that e-waste is the fastest growing waste stream and is composed of both valuable and hazardous materials. The document outlines the Indian e-waste scenario, noting that e-waste generation is expected to significantly increase by 2020 and that most e-waste management is currently unorganized. It concludes by stressing the need for a national e-waste policy and framework in India to properly manage increasing e-waste in an environmentally sound manner.
International Journal of Engineering and Science Invention (IJESI)inventionjournals
International Journal of Engineering and Science Invention (IJESI) is an international journal intended for professionals and researchers in all fields of computer science and electronics. IJESI publishes research articles and reviews within the whole field Engineering Science and Technology, new teaching methods, assessment, validation and the impact of new technologies and it will continue to provide information on the latest trends and developments in this ever-expanding subject. The publications of papers are selected through double peer reviewed to ensure originality, relevance, and readability. The articles published in our journal can be accessed online.
This presentation discusses electronic waste (e-waste) and its management. It notes that e-waste is the fastest growing waste stream and includes discarded electronics like computers, phones, and appliances. E-waste contains toxic materials like lead, mercury, and arsenic. The presentation outlines the impacts of e-waste on health and the environment if not properly managed and recycled. It proposes solutions like encouraging refurbishing, implementing sustainable product design and toxics-free materials, establishing formal e-waste collection and recycling systems, and improving public awareness of e-waste issues.
This document discusses the threats that e-waste poses to children's health in Africa. It notes that e-waste contains toxic metals and chemicals that are released into the environment during informal and unregulated recycling activities in Africa. These activities often take place in or near homes, exposing children and communities. While toxic to all, children are especially vulnerable due to their developing bodies and organs. The document reviews the chemicals present in e-waste and their release into the environment, as well as findings of elevated toxic metals in soils, plants, and humans near e-waste sites in Africa.
Seminar presentation on Electronic waste/E wasteEr Gupta
Electronic waste or E waste may be defined as, computers, office electronic equipment, entertainment devices & many other electronic or electrical devices which are unwanted, broken & discarded by their original users are known as ‘E-Waste’ or ‘Electronic Waste’
"E-waste is not a problem that is going away any time soon. In fact it is only going to get worse. By 2017, the volume of our thrown away e-products throughout the world is expected to rise by 33 percent from 2012, and we can expect the weight of this garbage to equal eight of the Great Pyramids of Egypt. The amount of e-waste that we produce, including computers, DVD players, cellphones and global positioning products, could rise by a whopping 500% over the next decade in countries such as India. It is crucial to know the effects of e-waste on the environment, and what we can do to stop it.
This is from an article that appeared on All Green Website: http://www.allgreenrecycling.com/blog/effects-of-e-waste-on-our-environment/"
E waste, health & enviroment-may2019MEWM Egypt
The document discusses the environmental and health impacts of e-waste. It begins by introducing different types of pollution like indoor and outdoor air pollution, water pollution, soil pollution, and food contamination. It then focuses on the health hazards caused by improper e-waste disposal, like reproductive, developmental and respiratory issues. Next, it discusses the environmental impact of e-waste recycling in developing countries, releasing heavy metals into soil, water and air. Finally, it outlines the human health effects on residents living near sites, children, and e-waste workers through occupational exposures.
THERMAL PROPERTIES OF INDIAN MUNICIPAL SOLID WASTE OVER THE PAST, PRESENT AND...civej
Management of municipal solid waste (MSW) has been a grave issue all over the world. The conventional
environment friendly techniques adopted to tackle the matter is turning futile owing to the appalling
increase in the waste generation rate. The resultant environmental and health hazards emphasise the need
for a more rapid solution. An apt and quick response to India’s mounting waste management and energy
demand crisesis the promotion and execution of waste to energy technologies. Although the MSW
composition and characteristics in the past have been unfavourable for the successful implementation of
waste to energy thermal facilities, there have been variations in the waste characteristics of late, in this
regard. Inert fraction which constituted almost 50% of the Indian MSW in the 1970s reduced by 30-40%by
the early 2000s, making energy recovery facilities an economically and environmentally feasible option.
The varying trends in MSW characteristics in India are analysed and its implications on the thermal energy
recovery techniques are investigated.
The document discusses the growing problem of e-waste and its harmful effects. It notes that while rules have been implemented in India to address e-waste, little progress has been made and e-waste generation continues to increase significantly each year. Both producers and consumers share responsibility for recycling discarded electronics. Throwing old electronics in landfills or incinerating them harms the environment and living things. There are companies that offer take-back programs for recycling electronics, and recycling centers are available for donating discarded devices. Exposure to toxic metals in improperly recycled e-waste can cause serious health issues in both adults and children. Increased awareness and use of recycling options is needed to protect the environment and all living beings.
Electronic waste, or e-waste, describes discarded electrical or electronic devices. Rapid changes in technology and falling prices lead to more electronics being produced and discarded. Countries like China receive much of the world's e-waste for informal recycling, but this causes health and pollution problems due to hazardous materials in electronics like lead, mercury, and brominated flame retardants. Guiyu, China is considered the largest e-waste site and processing there involves dangerous methods that pollute the environment and harm workers' health. Efforts are being made for cleaner recycling but more regulation and infrastructure is still needed to properly deal with the growing volumes of e-waste.
This document provides an overview of sustainable development in China. It discusses key facts about China's population, resources, and environmental issues. It outlines the government's role in sustainable development legislation and initiatives. It also discusses the business role and responsibilities in implementing sustainable practices in China to balance economic growth, environmental protection, and social equity.
The document discusses electronic waste (e-waste) and its impacts. It notes that e-waste is growing rapidly worldwide due to the electronics industry. E-waste contains toxic materials that can harm human health and the environment if not properly handled. The document outlines the composition of e-waste, sources of e-waste generation in India and globally, and the environmental and health hazards posed by e-waste, particularly from toxic materials like lead, mercury, and dioxins/furans released during improper recycling and disposal.
E-waste is a major problem world wide. Therefore managing e-waste becomes challenged. This Slides describes the sources through which e-waste is generated and its consequence on human health. it also describes the major country and city generating most e-waste. Generation of e-waste can be reduce and the same is describe in this presentation. Part 2 of this will be uploaded soon. all the data is taken from journals and from internet. Suggestions are invited. Special Thank you to Dr. Rajesh Timane.
Thank you
In this research paper, researcher has tried to focus on What is present scenario of E waste management in India & What are the procedures and methods used in its handling?
E-waste refers to electronic products that are near or at the end of their useful life. It contains toxic materials like lead, cadmium, and mercury that can harm the environment and human health. The amount of e-waste is increasing rapidly as electronics usage grows. Most e-waste in India is handled by the informal sector using unsafe methods. Proper e-waste management includes collection, sorting, recycling, and treatment to safely handle toxins. The government is working with organizations and implementing regulations, but increased awareness and producer responsibility are still needed to address this challenging waste stream.
This document discusses e-waste, which is defined as discarded electrical and electronic equipment. It notes that e-waste is one of the fastest growing waste streams due to high obsolescence rates of electronics. E-waste contains toxic components like lead, cadmium, and mercury if improperly treated or discarded. Developed countries generate most e-waste but export it to developing countries in violation of international agreements. In India, e-waste is illegally imported and then crudely recycled, polluting the environment due to a lack of regulation. The document classifies e-waste and examines its composition and the health effects of some common toxic components like lead, cadmium, and mercury.
"The effects of e-waste result in damage to our environment and our health. The best way to minimize this is to produce less of it.
This is from an article that appeared on All Green Website: http://www.allgreenrecycling.com/blog/effects-of-e-waste/"
The document discusses a study on public awareness and knowledge of electronic waste (e-waste) and its environmental impacts. A survey of 56 adults found that most disposed of electronics by recycling or storing them, showing some awareness. However, many lacked knowledge of local e-waste recycling sites. While half had prior e-waste knowledge, educating participants increased the percentage who would change disposal methods to be more environmentally friendly. Thus, greater public education may help address the growing e-waste problem.
The document discusses the growing problem of electronic waste (e-waste) around the world. It notes that e-waste contains toxic chemicals like lead, mercury, and cadmium. Many outdated electronic devices from developed countries are illegally exported and processed in places like Guiyu, China, exposing residents to health risks from pollution. While efforts have been made to improve recycling and reduce dumping, more action is needed as electronic device usage increases globally. Consumers are encouraged to properly recycle devices and choose upgrades over new purchases to reduce e-waste.
The document discusses the growing problem of electronic waste globally and in the United States. While regulations and recycling aim to address the issue, some e-waste recycling companies export waste to developing countries, where informal and unregulated recycling harms human and environmental health. The document recommends choosing e-Steward certified or original manufacturer recyclers to ensure waste stays local and is properly handled.
This document discusses electronic waste (e-waste), its sources and characteristics. It notes that e-waste is the fastest growing waste stream and is composed of both valuable and hazardous materials. The document outlines the Indian e-waste scenario, noting that e-waste generation is expected to significantly increase by 2020 and that most e-waste management is currently unorganized. It concludes by stressing the need for a national e-waste policy and framework in India to properly manage increasing e-waste in an environmentally sound manner.
International Journal of Engineering and Science Invention (IJESI)inventionjournals
International Journal of Engineering and Science Invention (IJESI) is an international journal intended for professionals and researchers in all fields of computer science and electronics. IJESI publishes research articles and reviews within the whole field Engineering Science and Technology, new teaching methods, assessment, validation and the impact of new technologies and it will continue to provide information on the latest trends and developments in this ever-expanding subject. The publications of papers are selected through double peer reviewed to ensure originality, relevance, and readability. The articles published in our journal can be accessed online.
This presentation discusses electronic waste (e-waste) and its management. It notes that e-waste is the fastest growing waste stream and includes discarded electronics like computers, phones, and appliances. E-waste contains toxic materials like lead, mercury, and arsenic. The presentation outlines the impacts of e-waste on health and the environment if not properly managed and recycled. It proposes solutions like encouraging refurbishing, implementing sustainable product design and toxics-free materials, establishing formal e-waste collection and recycling systems, and improving public awareness of e-waste issues.
This document discusses the threats that e-waste poses to children's health in Africa. It notes that e-waste contains toxic metals and chemicals that are released into the environment during informal and unregulated recycling activities in Africa. These activities often take place in or near homes, exposing children and communities. While toxic to all, children are especially vulnerable due to their developing bodies and organs. The document reviews the chemicals present in e-waste and their release into the environment, as well as findings of elevated toxic metals in soils, plants, and humans near e-waste sites in Africa.
Seminar presentation on Electronic waste/E wasteEr Gupta
Electronic waste or E waste may be defined as, computers, office electronic equipment, entertainment devices & many other electronic or electrical devices which are unwanted, broken & discarded by their original users are known as ‘E-Waste’ or ‘Electronic Waste’
"E-waste is not a problem that is going away any time soon. In fact it is only going to get worse. By 2017, the volume of our thrown away e-products throughout the world is expected to rise by 33 percent from 2012, and we can expect the weight of this garbage to equal eight of the Great Pyramids of Egypt. The amount of e-waste that we produce, including computers, DVD players, cellphones and global positioning products, could rise by a whopping 500% over the next decade in countries such as India. It is crucial to know the effects of e-waste on the environment, and what we can do to stop it.
This is from an article that appeared on All Green Website: http://www.allgreenrecycling.com/blog/effects-of-e-waste-on-our-environment/"
E waste, health & enviroment-may2019MEWM Egypt
The document discusses the environmental and health impacts of e-waste. It begins by introducing different types of pollution like indoor and outdoor air pollution, water pollution, soil pollution, and food contamination. It then focuses on the health hazards caused by improper e-waste disposal, like reproductive, developmental and respiratory issues. Next, it discusses the environmental impact of e-waste recycling in developing countries, releasing heavy metals into soil, water and air. Finally, it outlines the human health effects on residents living near sites, children, and e-waste workers through occupational exposures.
THERMAL PROPERTIES OF INDIAN MUNICIPAL SOLID WASTE OVER THE PAST, PRESENT AND...civej
Management of municipal solid waste (MSW) has been a grave issue all over the world. The conventional
environment friendly techniques adopted to tackle the matter is turning futile owing to the appalling
increase in the waste generation rate. The resultant environmental and health hazards emphasise the need
for a more rapid solution. An apt and quick response to India’s mounting waste management and energy
demand crisesis the promotion and execution of waste to energy technologies. Although the MSW
composition and characteristics in the past have been unfavourable for the successful implementation of
waste to energy thermal facilities, there have been variations in the waste characteristics of late, in this
regard. Inert fraction which constituted almost 50% of the Indian MSW in the 1970s reduced by 30-40%by
the early 2000s, making energy recovery facilities an economically and environmentally feasible option.
The varying trends in MSW characteristics in India are analysed and its implications on the thermal energy
recovery techniques are investigated.
The document discusses the growing problem of e-waste and its harmful effects. It notes that while rules have been implemented in India to address e-waste, little progress has been made and e-waste generation continues to increase significantly each year. Both producers and consumers share responsibility for recycling discarded electronics. Throwing old electronics in landfills or incinerating them harms the environment and living things. There are companies that offer take-back programs for recycling electronics, and recycling centers are available for donating discarded devices. Exposure to toxic metals in improperly recycled e-waste can cause serious health issues in both adults and children. Increased awareness and use of recycling options is needed to protect the environment and all living beings.
Electronic waste, or e-waste, describes discarded electrical or electronic devices. Rapid changes in technology and falling prices lead to more electronics being produced and discarded. Countries like China receive much of the world's e-waste for informal recycling, but this causes health and pollution problems due to hazardous materials in electronics like lead, mercury, and brominated flame retardants. Guiyu, China is considered the largest e-waste site and processing there involves dangerous methods that pollute the environment and harm workers' health. Efforts are being made for cleaner recycling but more regulation and infrastructure is still needed to properly deal with the growing volumes of e-waste.
This document provides an overview of sustainable development in China. It discusses key facts about China's population, resources, and environmental issues. It outlines the government's role in sustainable development legislation and initiatives. It also discusses the business role and responsibilities in implementing sustainable practices in China to balance economic growth, environmental protection, and social equity.
The document discusses electronic waste (e-waste) and its impacts. It notes that e-waste is growing rapidly worldwide due to the electronics industry. E-waste contains toxic materials that can harm human health and the environment if not properly handled. The document outlines the composition of e-waste, sources of e-waste generation in India and globally, and the environmental and health hazards posed by e-waste, particularly from toxic materials like lead, mercury, and dioxins/furans released during improper recycling and disposal.
International Journal of Engineering Inventions (IJEI) provides a multidisciplinary passage for researchers, managers, professionals, practitioners and students around the globe to publish high quality, peer-reviewed articles on all theoretical and empirical aspects of Engineering and Science.
Report on e-waste management & recyclingGovindmeena93
The document provides an overview of e-waste (electronic waste) in India. It discusses that e-waste is a growing problem due to rapid technological changes and the growing consumption of electronic devices. It notes that e-waste contains toxic heavy metals like lead, mercury, and cadmium which can harm human health and the environment if not properly disposed of. It also discusses the different sources of e-waste in India like households, businesses, manufacturers, and imports. Common methods for managing e-waste mentioned are landfilling, incineration, and recycling, each with their own environmental risks if not carried out properly. The document emphasizes the need for better e-waste management policies and practices in India to deal with the
Hospital wastes pose a significant impact on health and environment. From this study it can be said that there is an urgent need for raising awareness and education on medical waste issues. Proper waste management strategy is needed to ensure health and environmental safety. by Nimbalkar Girajaram Swamirao, Chavan Rdhul Tulashiram, Pedasangi Sachin Chandrakant and Mr. Ghatage S. A 2018. Hospital Waste Disposal. International Journal on Integrated Education. 1, 1 (Dec. 2018), 88-93 https://journals.researchparks.org/index.php/IJIE/article/view/791/760 https://journals.researchparks.org/index.php/IJIE/article/view/791
Electronic waste (e-waste) describes discarded electrical or electronic devices. Rapidly changing technology and planned obsolescence have resulted in a fast-growing amount of e-waste globally. E-waste contains hazardous but also valuable materials. There is disagreement around the relative risks of e-waste and whether restricting the international trade of used electronics improves or worsens conditions. While recycling e-waste recovers materials, informal processing in developing countries can cause health and environmental problems due to toxic emissions and water contamination.
This document discusses electronic waste (e-waste) recycling as a viable business opportunity in South Africa. It notes that while e-waste is mainly generated by developed nations, ownership of electronic devices is growing rapidly in developing countries as well. Currently, only about 10% of over 50,000 tons of annual e-waste generated in South Africa is recycled. E-waste contains valuable materials like gold and copper, but also hazardous substances like lead and mercury, so proper handling and recycling is important. Enabling policies and support from government and businesses could help unlock the potential of e-waste recycling to create jobs and improve waste management in South Africa.
This document discusses electronic waste (e-waste), its global and Indian perspectives, and the need for proper management. Some key points:
- E-waste is growing exponentially worldwide due to rising electronics use and short product lifecycles. About 50 million tons is generated globally each year.
- Only 20% is recycled properly through formal means. The rest is often handled improperly, contaminating the environment and exposing workers to toxins.
- E-waste contains valuable materials like gold but also heavy metals like lead, mercury that are toxic if not handled properly. It accounts for 70% of heavy metals in landfills.
- India generates about 2 million tons annually but lacks formal data collection. Improper
Electronic Waste impacting Health And Environment, Its Management -Global & I...IJSRED
This document discusses electronic waste (e-waste), its global and Indian perspectives, and the need for proper management. Some key points:
- E-waste is growing exponentially worldwide due to rising electronics use and short product lifecycles. About 50 million tons is generated globally each year.
- Only 20% is recycled properly through formal means. The rest is often handled improperly, contaminating the environment and exposing workers to toxins.
- E-waste contains valuable materials like gold, silver and copper, but also toxic heavy metals like lead, mercury and cadmium. Improper disposal leads to their release into the environment.
- India generates around 2 million tons annually but lacks official data and management.
This document provides an overview of electronic waste (e-waste) management. It discusses:
1) Sources of e-waste including individual households, businesses, manufacturers, and imports. Business sectors account for most e-waste in India.
2) Categories of e-waste including large and small household appliances, IT equipment, consumer equipment, lighting, and more.
3) Hazards of e-waste including toxic heavy metals like lead, mercury, cadmium which can contaminate the environment if e-waste is improperly disposed of.
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A Comprehensive Study On E Waste Management: Present Situation And Future Imp...Mosfiqur Rahman
This document provides an overview of e-waste management in Bangladesh. It discusses the environmental and health hazards posed by e-waste, such as the release of heavy metals into the air, water and soil. Currently, informal and unsafe recycling practices are common in Bangladesh. The document then outlines international initiatives and policies for e-waste management, as well as strategies for reducing e-waste such as inventory management, product redesign, and recovery/reuse programs. It notes challenges in Bangladesh include a lack of awareness and proper regulations. Overall, the document analyzes the current situation of e-waste in Bangladesh and potential solutions to improve management and reduce environmental contamination.
This document discusses various types and causes of environmental pollution in India. It notes that Mahatma Gandhi warned about satisfying man's greed leading to environmental issues. It then discusses different types of pollution affecting India - air pollution from vehicles and industry causing health issues, noise pollution mainly from vehicles, water pollution from untreated wastewater causing deaths, and soil pollution from agricultural chemicals. Specific polluted areas in India are also named. Suggestions to address pollution include projects to protect historic monuments from pollution and cooperation between India and the World Bank on green initiatives.
General assessment of e waste problem in egypt.pdfwalled ashwah
This document summarizes the e-waste problem in Egypt. It estimates that the number of mobile phone subscribers in Egypt increased nearly 5 times from 2001 to 2008. It also estimates that the number of personal computers in Egypt increased from around 120,000 in 1992 to over 11 million by 2005. The document projects that e-waste quantities will continue increasing rapidly in Egypt due to growing electronics use. It notes that e-waste contains toxic heavy metals and chemicals and that Egypt currently lacks formal e-waste recycling systems.
The document provides an overview of electronic waste (e-waste) management in India. It defines e-waste as discarded electrical or electronic devices, and notes that e-waste contains toxic materials like lead, cadmium, and mercury that can contaminate the environment if not properly disposed of. The document categorizes e-waste and details India's e-waste generation rates, noting that Maharashtra and Delhi are the top producers. It also discusses the health and environmental hazards of materials found in e-waste like arsenic, cadmium, and mercury.
This document provides an overview of electronic waste (e-waste) management in India. It defines e-waste as discarded electrical or electronic devices, and notes that India generates about 1.7 million tonnes of e-waste annually, making it the fifth largest producer globally. The document categorizes e-waste and outlines its composition. It discusses the environmental and health hazards of improperly disposed e-waste, such as the leaching of heavy metals into soil and water. The document emphasizes the need for proper e-waste recycling given the large gap between e-waste generation and recycling in India. It provides an overview of the e-waste management process and lists some major e-waste management companies in India.
This document provides an overview of electronic waste (e-waste) management in India. It defines e-waste as discarded electrical or electronic devices, and notes that India generates about 1.7 million tonnes of e-waste annually, making it the fifth largest producer globally. The document categorizes e-waste and outlines its composition. It discusses the environmental and health hazards of improperly disposed e-waste, such as the leaching of heavy metals into soil and water. The document emphasizes the need for proper e-waste recycling given the large gap between e-waste generation and recycling in India. It provides an overview of India's e-waste management process and some of the top e-waste management companies in the country.
Our E-Waste Problem is Ridiculous, and Gadget Makers Aren't Helping clarifies the damaging effects of dumping electronic waste into landfills. 70-80% of old phones end up in landfills when customers upgrade to new phones. While technology has improved, electronics have become harder to disassemble. The recycling process involves determining if devices can be resold; otherwise, they are shredded so materials like steel and copper can be recycled. However, extracting these materials can be difficult.
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‘E-WASTE’: THE GROWING CONCERN
-Varun Singh
The advances in the fields of science and technology led to the industrial revolution
which in turn marked a new era for human civilization. Industrial growth,
establishment of trade and commerce, globalization, electronic advancements etc., have
all led to enhancement of the quality of our lives. In comfort of the above, it goes out of
notice that the said growths have also occasioned manifold problems arising out of
massive amounts of hazardous waste and other wastes generated from electric
products. In its legal approach, this paper analyses the business of ‘hazardous and other
wastes’ (‘E-waste’) and the rules and regulations governing it.
According to the Basel Convention1, ‘wastes’ are substances or objects, which are
disposed of or are intended to be disposed of, or are required to be disposed of by the
provisions of national laws.2 Additionally, our daily activities give rise to a large variety
of different wastes arising from different sources. Thus, municipal waste is waste
generated by households consisting of paper, organic waste, metals, etc. Biomedical
waste is the waste generated by hospitals and other health providers and consists of
discarded drugs, sharp-wastes, microbiology and biotechnology waste, human
anatomical waste, animal waste, etc. Radioactive waste is any material that contains a
concentration of radionuclide greater than those deemed safe by national authorities,
and for which, no use is foreseen. Other sources of waste include end-of-life vehicles,
packaging waste, tyres, agricultural waste, etc.3
In the same sequence of events, the
growth in technology and sciences has complemented the need for speed in matters of
1
Basel Convention on the Control of Transboundary Movements of Hazardous Wastes and Their Disposal, adopted
by the Conference of the Plenipotentiaries on 22 march 1989.
2
Text of the Basel Convention on the Control of Transboundary Movements of Hazardous Wastes and Their
Disposal, UNEP, Geneva, Switzerland, p.6, http://www.basel.int/text/
3
Performance Audit on "Management of Wastes in India", Report No. PA 14 of 2008,
www.cag.gov.in/html/reports/civil/2008_PA14_SD.../chap_1.pdf
2. 2 | P a g e
transportation, communication, presentation, etc., changing completely the way we
look and live the world around us, making us interdependent on electronics and its
products to a large extent.4
Composition of ‘E-waste’
Electronic-waste or ‘E-waste’, can inclusively be described as loosely discarded,
surplus, obsolete, broken, electrical or electronic devices and consisting of all waste
from electronic and electrical appliances which have reached their ‘end-of-life’ period or
are no longer fit for their original intended use and are destined for recovery, recycling
or disposal. For example it includes computer and its accessories, monitors, printers,
keyboards, central processing units; typewriters, mobile phones and chargers, remotes,
compact discs, headphones, batteries, LCD/Plasma TVs, air conditioners, refrigerators
and many more appliances. The composition of ‘E-waste’ is diverse and can have
‘hazardous’5
as well as ‘non-hazardous’6
classifications. Broadly, ‘E-waste’ consists of
ferrous and non-ferrous metals, plastics, glass, wood and plywood, printed circuit
boards, concrete, ceramics, rubber and other items.”7 Iron and steel constitute about
50% of the waste, followed by plastics (21%), non-ferrous metals (13%) and other
4
“‘E-waste’ Management: An Emerging Challenge toManage and Recover Valuable Resources”, International
Journal of Environmental Research and Development, http://www.ripublication.com/ijerd.htm
5
Americium; Sulphur; Includes PBBs, PBDE, DecaBDE, OctaBDE, PentaBDE; Cadmium; Lead; Beryllium oxide;
Perfluorooctanoic acid (PFOA);Hexavalent chromium (present in various compounds forms)
6
Aluminium: nearly all electronic goods using more than a few watts of power (heat sinks), electrolytic capacitors,
Copper: copper wire, printed circuit board tracks, component leads, Germanium: 1950s–1960s transistorized
electronics (bipolar junction transistors), Gold: connector plating, primarily in computer equipment, Iron: steel
chassis, cases, and fixings, Lithium: lithium-ion batteries, Nickel: nickel-cadmium batteries,
Silicon: glass, transistors, ICs, printed circuit boards, Tin: solder, coatings on component leads, Zinc: plating for
steel parts.
7
NehaLalchandani, E-scare, The Times of India, April 24, 2010
3. 3 | P a g e
constituents. Non-ferrous metals consist of metals like copper, aluminium and precious
metals like silver, gold, platinum, palladium and so on.8
Growing ‘E-waste’ concerns
All over the world, the quantity of electrical and electronic waste generated each
year, especially computers and televisions, has assumed alarming proportions. In 2006,
the International Association of Electronics Recyclers (IAER)9
projected that 3 billion
electronic and electrical appliances would become ‘Waste Electrical and Electronic
Equipment’ (WEEE) or ‘E-waste’ by 2010. That would tantamount to an average ‘E-
waste’ generation rate of 400 million units a year till 2010. Globally, about 20-50 MT
(million-tonnes) of ‘E-waste’ is disposed off each year, which accounts for 5% of all
municipal solid waste. As the fastest growing component of municipal waste across the
world, it is estimated that more than 50 MT of ‘E-waste’ is generated globally every
year. In other words, these would fill enough containers on a train to go round the
world once.10
A report of the United Nations predicted that by 2020, ‘E-waste’ from old
computers would jump by 500 per cent in India.11
Additionally, ‘E-waste’ from
discarded mobile phones would be about seven times higher than 2007 levels and, in
India, 18 times higher by 2020.12
Such predictions highlight the urgent need to address the problem of ‘E-waste’ in
developing countries like India where the collection and management of ‘E-waste’ and
the recycling process is yet to be properly regulated.
8
Amit Jain, 'Global ‘E-waste’ growth' in Rakesh Johri, ‘E-waste’: Implications, regulations and management in
India and current global best practices, TERI, New Delhi, 2008, p.3
9
The IAER was acquired by the Institute of Scrap Recycling Industries, Inc. (ISRI) in January 2009. ISRI, based in
Washington D.C., USA, is the voice of the scrap recycling industry, an association of companies that process, broker
and consume scrap commodities.
10
Schwarzer S., A.D. Bono et al, '‘E-waste’, the hidden side of IT equipment's manufacturing and use', Environment
Alert Bulletin (UNEP Early Warning on Emerging Environmental Threats), No. 5, 2005.
11
In contrast, increase in china has been by 400 percent.
12
‘Generation of ‘E-waste’’, Rajya Sabha Unstarred Question No. 24, dated 26.07.2010.
4. 4 | P a g e
‘E-waste’ generation in India
Element of municipal waste across the world also constitute of E-waste, it is estimated
that more than 50 MT of ‘E-waste’ is caused globally every year, of which India alone
contributes 1.8 MT annually.13
In India most of the activities like collection, transportation, segregation,
dismantling, etc., is done manually by unorganized sectors. Being a rich source of
reusable and precious material, E waste is also a good source of revenue generation for
many people in India. The big portion (rag pickers) of the Indian population earned
their livelihood by collecting and selling the inorganic waste-like plastics, polythene
bags, glass bottles, cardboards, paper, other ferrous metals, etc Figure 1 reveals the
annual generation of ‘E-waste’ within the states of India that has been continuously
rising over the years. In 2007, 332979 MT of ‘E-waste’ was generated, whereas in 2009
the total amount of ‘E-waste’ generated was 399905 MT. In the year 2011 the total ‘E-
waste’ generation was 484515 MT, accounting for 84610 MT increase in ‘E-waste’ from
that in 2009 and in 2012 the amount of ‘E-waste’ generated was 0.8 Million MT, almost
double from that in 2011, thereupon depicting the trend of ‘E-waste’ generation in
India.14
13
http://www.ciol.com/ciol/news/186651/india-generates-08-million-tonnes-waste-sibal
14
A survey was carried out by the Central Pollution Control Board (CPCB) during 2005. It was estimated that 1.347
lakh MT of ‘E-waste’ was generated in the country in the year 2005, which is expected to increase to about 8.0 lakh
MT by 2012. During 2007, Manufacturers’ association for Information Technology (MAIT), India and GTZ, India
had, however, carried out an inventory on ‘E-waste’, arising out of three products: computers, mobile phones, and
televisions. The total quantities of generated ‘E-waste’ in India, during 2007, were 3, 32, 979 Metric Tonnes (MT)
(Computer: 56324MT, Mobile Phones: 1655MT, and Televisions: 275000MT) (Sources: Report on “‘E-waste’
Inventorisation in India”, MAIT-GTZ Study, 2007
5. 5 | P a g e
Environment Concerns and Health Hazards
Following Supreme Court directions,15
the states have notified a set of hazardous
waste laws and built a number of hazardous waste disposal facilities in the last ten
years. According to the MoEF, presently there are 28 operational Treatment, Storage
and Disposal Facilities (TSDFs) for hazardous waste management in the country. The
rising quality of life and high rates of resource consumption patterns has had an
unintended and negative impact on the environment through the generation of wastes
far beyond the handling capacities of governments and agencies.
‘E-waste’ concerns and challenges
No proper authority so as to study at the amount of ‘E-waste’ generated
domestically and by imports.
Awareness amongst the manufacturers and the consumers about the hazards of
‘E-waste’
Major portion of the waste/’E-waste’ is processed by the informal (unorganised)
sector using basic rudimentary techniques16, which results in severe
environmental damage and other health hazards
Inefficient recycling processes result in substantial losses of material value and
resources.
No proper implementation and enforcement mechanism for the recently
formulated ‘E-waste’ (Management and Handling) Rules, 2011.
15
The Hon’ble Supreme Court of India vide its order dated 14 October, 2003 in the matter of Writ Petition (Civil)
No. 657 of 1995 filed by the Research Foundation for Science, Technology and Natural Resource Policy Vs Union
of India and Others, inter-alia, directed the Central Government to constitute a Monitoring Committee to oversee
timely compliance of its directions given in the said Writ Petition. < h t t p : / / c p c b . n i c . i n / o l d w e b s i t e /
H a z a r d o u s % 2 0 W a s t e SupremeCourtDirectives.html>
16
such as acid leaching and open-air burning
6. 6 | P a g e
Legal Provision for Waste Management in India: An Overview
The Central Government in exercise of its powers conferred to it under the provisions of
Environment Protection Act, 198617
and/or otherwise has issued the following
notifications in relation to hazardous waste:
1. Hazardous Wastes (Management and Handling) Rules, 198918
2. MoEF Guidelines for Management and Handling of Hazardous Wastes, 1991
3. Guidelines for Safe Road Transport of Hazardous Chemicals, 1995
4. The Public Liability Act, 1991
5. Batteries (Management and Handling) Rules, 2001
6. The National Environmental Tribunal Act, 1995
7. Bio-Medical Wastes (Management and Handling) Rules, 1998
8. Municipal Solid Wastes (Management and Handling) Rules, 2000
9. The Recycled Plastic Manufacture and Usage (Amendment) Rules 2003.
10. Guidelines For Environmentally Sound Management of ‘E-waste’19
11. Hazardous Waste (Management, Handling & Transboundary Movement) Rules,
2008.
12. Public Notice for All Generators, transporters and re-processors of ‘E-waste’20
13. Hazardous Waste Management Rules, 2008.
14. ‘E-waste’ (Management & Handling) Rules, 2011.
The Hazardous Wastes (Management and Handling) Rules, 1989 was introduced under
Sections 6, 8, and 25 of the Environment (Protection) Act of 1986 (referred to as “HWM
Rules, 1989”). The HWM Rules, 1989 provides for the control of generation, collection,
17
Section 3, section 5, section 6, section 25 & section 26
18
amended in 2000 & 2002
19
as approved vide MoEF letter No. 23-23/2007-HSMD dt. March 12, 2008
20
Newspaper:-Loksatta, Date:-26/11/2009.
7. 7 | P a g e
treatment, transport, import, storage and disposal of wastes listed in the schedule
annexed to these rules. The HWM rules are implemented through the various Pollution
Control Boards and Pollution Control Committees in the states and union territories
respectively. There were a few inherent limitations to the implementation of the HWM
Rules, 1989, which led to amendments to these Rules being introduced in 2000, 2002 and
2008, widening the definition of hazardous waste by incorporating ‘E-waste’ and
harmonizing the list of hazardous waste materials with that of the Basel Convention.
Besides these rules, in 1991, the Ministry of Environment and Forests (MoEF), New
Delhi issued guidelines for management and handling of hazardous wastes for (a)
generators of waste, (b) transport of hazardous waste, and (c) owners/operators of
hazardous waste storage, treatment and disposal facilities. These guidelines also
established mechanisms for the development of a reporting system for the movement of
hazardous waste (the manifest system) and for the first time, established procedures for
closure and post-closure requirements for landfills. In addition to the HWM rules and
thereby guidelines, dealing with issues of hazardous waste management, the
Government has moved to enact legislation and additional incentives for industries to
comply with environmental provisions and bring out market forces into the business of
environment.
In this vein, the Public Liability Act 1991 was adopted to require industries dealing
with hazards to ensure against accidents or damages caused by release of pollutants.
Batteries (Management and Handling) Rules, 2001 apply to every manufacturer,
importer, reconditioner, assembler, dealer, recycler, auctioneer, consumer and bulk
consumer involved in manufacture, processing, sale, purchase and use of batteries or
components thereof. These rules confer responsibilities on the manufacturer, importer,
assembler and re-conditioner; they govern the registration of importers, the customs
clearance of imports of new lead acid batteries, procedures for registration/ renewal of
8. 8 | P a g e
registration of recyclers and also the responsibilities of consumer or bulk consumer and
responsibilities of auctioneers.
In 1995 publication of Guidelines for Safe Road Transport of Hazardous Chemicals
that established basic rules for Hazardous Goods Transport and provided for
establishment of a Transport Emergency Plan and for provisions on Identification and
assessment of Hazards.
The National Environmental Tribunal Act, 1995, provides for expeditious
remedies to parties injured by environmental crimes. Legislation on the Community’s
Right to Know, 1996, has been adopted to provide more access to information regarding
potential hazards from industrial operations.
Bio-Medical Wastes (Management and Handling) Rules, 1998, provides a ten
category listing of biomedical waste, providing for control of generation, collection,
treatment, transport, import, storage and disposal of wastes listed in the schedule
annexed to these rules.
Municipal Solid Wastes (Management and Handling) Rules, 2000, provides for
collection, segregation, storage, transportation processing and disposal of municipal
solid wastes. The Recycled Plastic Manufacture and Usage (Amendment) Rules 2003,
essentially deal with plastic recycling and products made out of plastic.
Considering it necessary in the public interest to enable the recovery and/or
reuse of useful material from ‘E-waste’, and to dedicate one certain set of laws for
effective handling and management of ‘‘E-waste’’ and also to thereby reduce the
hazardous wastes destined for disposal, and to ensure the environmentally sound
management of all types of Waste Electrical and Electronic Equipment (WEEE), the
Government introduced the ‘E-waste’ (Management and Handling) Rules, 2011. 21
According to the Rules, the producers of electrical and electronic equipments including
21
First Draft ‘‘E-waste’ (Management and Handling) Rules, 2010’, Notification dated 14 May, 2010, Government
of India, Ministry of Environment and Forests. < http://moef.nic.in>, http://moef.nic.in/downloads/rules-and-
regulations/1035e_eng.pdf.
9. 9 | P a g e
large and small household appliances, computers, toys, leisure and sports equipments,
and medical devices shall be liable for collecting any ‘E-waste’ generated during
manufacture and will have to channelize the same for recycling or disposal. They will
also be responsible for setting up collection centres for ‘E-waste’ generated from the
‘end-of-life’ products in line with the principle of the ‘Extended Producer
Responsibility’ and ensure that such ‘E-waste’ is channelized to a registered refurbisher
or dismantler or recycler. The manufacturers have to ensure that all electrical and
electronic equipments are provided with a unique serial number or individual
identification code for product tracking in the ‘E-waste’ management system. They shall
also finance and organize a system to meet the costs involved in the environmentally
sound management of ‘E-waste’ generated from the ‘end-of-life’ of its own products
and ‘historical waste’22 available on the date from which the rules come into force.
Notable among other rules is the inclusion of the Chapter on ‘Reduction in the
use of Hazardous Substances (RoHS)’ in the manufacture of Electrical and Electronic
Equipment. Under rule 15, every producer of electrical and electronic equipment will
have to ensure that, new electrical and electronic equipment does not contain Lead,
Mercury, Cadmium, Hexavalent Chromium, Polybrominated Biphenyls (PBB) or
Polybrominated Diphenyl Ethers (PBDE). Such reduction in use of hazardous
substances would be achieved within a period of three years from the date of
commencement of the new ‘E-waste’ rules.
Criticism attached to the ‘E-waste’ Rules
Although the E-waste (Management and Handling) Rules, 2011 as such have been
criticized on several grounds by various environmental groups, but first and foremost,
is that it ignores the unorganized and small and medium sectors where 90 per cent of
22
According to the ‘‘E-waste’ (Management and Handling) Rules, 2011’, ‘historical waste’ means all available ‘E-
waste’ in the market on the date from which these Rules come into force.
10. 10 | P a g e
the ‘E-waste’ is generated. The law currently does not provide for any plan to
rehabilitate those involved in informal recycling. Secondly, the Rules also do not detail
the business model for collection of ‘E-waste’ from consumers. The legislations enacted
by the Government cover generation, storage, transportation and disposal of hazardous
waste but do not propose a streamlined collection mechanism. On the other hand, most
countries which have drafted regulations on ‘E-waste’ have sought the participation
and involvement of producers as they are best equipped to address the solutions to the
complex composition of such products.23
The rules are also completely oblivious to the electronic waste that is imported
into the country. A study by the Centre for Science and Environment estimates that
close to 50,000 metric tonnes of electronic scrap is imported into the country every year.
But the rules have no provisions to control imports. Though the trans-boundary
movement of hazardous waste is banned under an international treaty called the Basel
Convention24
, dealers sneak in consignments of electronic scrap as they are not properly
classified. According to environmental activists, most electronic scrap that comes into
the country is classified as plastic scrap or mixed waste.
23
P. Srisudha, 'Tackling ‘E-waste’', The Hindu, 28 June, 2009.
24
One of the major international agreements on the Transboundary movement of hazardous waste is the Basel
Convention on the Control of Transboundary Movements of Hazardous Waste and Their Disposal with 170
signatories. The convention looks at a variety of related issues including generation and movement of waste,
disposal, trade aspects etc. (Basel Convention on the Control of Transboundary Movements of Hazardous Waste
and Their Disposal (1992), http://www.basel.int/text/con-e-rev.pdf)
11. 11 | P a g e
References
1. Alexander J. and B. Bilitewski, (2008) ‘Hazardous substances in waste electrical
and electronic equipment’ In: ‘E-waste’: Implications, regulations and
management in India and current global best practices, (Rakesh Johri, ed.) TERI,
New Delhi, p.93.
2. Business Standard (2010) 'Creating Best out of (e) Waste', SME Trends: A
Commerical Report, , New Delhi, 8 September 2010.
3. ‘E-waste’ Management: An Emerging Challenge to Manage and Recover Valuable,
http://www.ripublication.com/ijerd_spl/ijerdv4n3spl_09.pdf
4. http://blogs.reuters.com/india/2012/05/17/electronic-waste-rules-in-letter-but-
without-spirit/
5. Kang, H.Y. and Schoenung J.M. (2005): Electronic Waste Recycling: A review of
US Infrastructure and Technology Options. Resources, Conservation and Recycling. 45,
368-400.
6. Ravi Agarwal, ‘E-waste’ Law, New Paradigm or Business as Usual, ECONOMIC AND
POLITICAL WEEKLY VOL XLVII NO 25 14, 14 (2012).
7. SatishSinha, Dark shadows of digitization on Indian horizon, in RakeshJohri (ed.), ‘E-
waste’: Implications, regulations and management in India and current global
best practices 27 (2008) (TERI, Batra Art Press, New Delhi).
8. The ‘E-waste’ (Management and Handling) Rules, 2011
http://moef.nic.in/downloads/rules-and-regulations/1035e_eng.pdf .
9. The Hazardous Waste (Management and Handling) Rules, 1989
http://envfor.nic.in/divisions/hsmd/notif.html.
10. The Municipal Solid Wastes (Management and Handling) Rules, 2000
http://envfor.nic.in/legis/hsm/mswmhr.html
12. 12 | P a g e
11. Tysdenova O. and Bengtsson, M. (2011). Chemical Hazards Associated with the
Treatment of Waste Electrical and Electronic Equipment. Waste Management 31:
56-61.
12. WEEE assessment study by the International Resource Group Systems South
Asia Pvt. Ltd (IRGSSA) (2005) m/s IRG Systems South Asia Pvt. Ltd.