The document provides an introduction to organic and printed electronics. It discusses several societal challenges such as an aging population, increasing costs of healthcare, food waste, and energy needs. Organic and printed electronics offer advantages like low cost production using printing processes, flexibility, and lower environmental impact. Examples of applications mentioned include flexible displays, plastic solar cells, RFID tags, and electronic textiles. The market for printed electronics is predicted to grow substantially over the coming years across various industries such as healthcare, consumer packaging, and displays.
The document discusses electrical and electronic waste (e-waste). It provides information on the sources of e-waste including individual households, businesses, manufacturers/retailers, imports, and the secondary market. It describes the categories of e-waste and the major components. The document also addresses the generation of e-waste in India, the associated environmental and health hazards of improper e-waste disposal, and the opportunities for recycling e-waste to recover valuable materials and promote green jobs.
E waste recyclers is e-waste management company in India. Our e-waste recycling company recycles electronic and electrical waste, toner cartridge or anything that runs on electricity or battery. We also provide you data destruction certificate
E-waste, or electronic waste, refers to discarded electronic equipment like computers, phones, TVs, and appliances. It is a growing problem due to the toxic materials inside electronics and the danger of data theft if devices are not properly disposed of. The key issues around e-waste are ensuring data security, promoting recycling and reuse of electronic parts, and reducing environmental and health effects of improper disposal. Proper e-waste control methods include providing many recycling locations, encouraging people to declutter, and using events like holidays to motivate recycling.
The document discusses electronic waste (e-waste) and its management. It notes that India generates close to 500,000 tons of e-waste per year, which is expected to reach 1 million tons by 2011. E-waste contains toxic heavy metals like lead, mercury, and cadmium which can cause environmental pollution and health issues if not disposed of properly. Most of India's e-waste is currently handled by the informal sector using unsafe recycling methods like open burning, which needs to be addressed.
E-waste consists of discarded electronic items like computers and appliances. India generates about 9 lakh tonnes of e-waste annually, which is often handled improperly. Exposure to e-waste can cause health issues since it contains toxic materials like lead, mercury, cadmium. Current disposal methods in India like acid baths are unsafe. Proper recycling and enforcement of e-waste laws is needed to protect both workers and the environment from e-waste.
This document discusses electronic waste (e-waste) management for ecological balance. It notes that e-waste is one of the fastest growing segments of waste streams due to rapid technology changes and planned obsolescence. Approximately 50 million tons of e-waste is produced annually, which can harm the environment and human health if improperly disposed of, as it contains toxic materials such as lead, mercury, and cadmium. The document recommends recycling and reuse as environmentally preferable solutions to reduce pollution and resource consumption from manufacturing new products.
This document discusses e-waste and its management. It defines e-waste as obsolete electronic equipment like computers, TVs, and cell phones. E-waste is a growing problem due to the toxins it contains and risks of improper disposal. When e-waste is burned or dumped, its components like lead, mercury, and flame retardants can pollute the environment and harm human health. However, e-waste also contains valuable materials that can be recovered through formal recycling. Proper e-waste management and recycling can help address this issue in a more sustainable manner.
Seminar e waste managment in nepal_ Anup ThokerAnupThoker
Anup Thoker presented on electronic waste (e-waste) and its management in Nepal. Some key points included:
- E-waste is a growing problem due to increasing global consumption of electronics and toxic materials in electronics that can harm human health and the environment if not properly disposed.
- Nepal produces large amounts of e-waste annually but lacks proper management systems.
- The presentation covered Nepal's current e-waste and solid waste management practices, challenges, and recommendations to improve management and prevent pollution.
The document discusses electrical and electronic waste (e-waste). It provides information on the sources of e-waste including individual households, businesses, manufacturers/retailers, imports, and the secondary market. It describes the categories of e-waste and the major components. The document also addresses the generation of e-waste in India, the associated environmental and health hazards of improper e-waste disposal, and the opportunities for recycling e-waste to recover valuable materials and promote green jobs.
E waste recyclers is e-waste management company in India. Our e-waste recycling company recycles electronic and electrical waste, toner cartridge or anything that runs on electricity or battery. We also provide you data destruction certificate
E-waste, or electronic waste, refers to discarded electronic equipment like computers, phones, TVs, and appliances. It is a growing problem due to the toxic materials inside electronics and the danger of data theft if devices are not properly disposed of. The key issues around e-waste are ensuring data security, promoting recycling and reuse of electronic parts, and reducing environmental and health effects of improper disposal. Proper e-waste control methods include providing many recycling locations, encouraging people to declutter, and using events like holidays to motivate recycling.
The document discusses electronic waste (e-waste) and its management. It notes that India generates close to 500,000 tons of e-waste per year, which is expected to reach 1 million tons by 2011. E-waste contains toxic heavy metals like lead, mercury, and cadmium which can cause environmental pollution and health issues if not disposed of properly. Most of India's e-waste is currently handled by the informal sector using unsafe recycling methods like open burning, which needs to be addressed.
E-waste consists of discarded electronic items like computers and appliances. India generates about 9 lakh tonnes of e-waste annually, which is often handled improperly. Exposure to e-waste can cause health issues since it contains toxic materials like lead, mercury, cadmium. Current disposal methods in India like acid baths are unsafe. Proper recycling and enforcement of e-waste laws is needed to protect both workers and the environment from e-waste.
This document discusses electronic waste (e-waste) management for ecological balance. It notes that e-waste is one of the fastest growing segments of waste streams due to rapid technology changes and planned obsolescence. Approximately 50 million tons of e-waste is produced annually, which can harm the environment and human health if improperly disposed of, as it contains toxic materials such as lead, mercury, and cadmium. The document recommends recycling and reuse as environmentally preferable solutions to reduce pollution and resource consumption from manufacturing new products.
This document discusses e-waste and its management. It defines e-waste as obsolete electronic equipment like computers, TVs, and cell phones. E-waste is a growing problem due to the toxins it contains and risks of improper disposal. When e-waste is burned or dumped, its components like lead, mercury, and flame retardants can pollute the environment and harm human health. However, e-waste also contains valuable materials that can be recovered through formal recycling. Proper e-waste management and recycling can help address this issue in a more sustainable manner.
Seminar e waste managment in nepal_ Anup ThokerAnupThoker
Anup Thoker presented on electronic waste (e-waste) and its management in Nepal. Some key points included:
- E-waste is a growing problem due to increasing global consumption of electronics and toxic materials in electronics that can harm human health and the environment if not properly disposed.
- Nepal produces large amounts of e-waste annually but lacks proper management systems.
- The presentation covered Nepal's current e-waste and solid waste management practices, challenges, and recommendations to improve management and prevent pollution.
The document discusses e-waste management in India. It provides background on what constitutes e-waste and why it needs to be managed. E-waste recycling occurs primarily in the informal sector through crude dismantling processes that are hazardous to health and the environment. The formal sector makes up a small portion of recycling. Improving the sustainability of e-waste management will require recognizing the important role of the informal sector, providing market information, incentivizing formal recycling, deploying mature recycling technologies, upskilling informal workers, and coordinating formal and informal sectors through policy instruments.
E-waste refers to electronic devices that are discarded after becoming obsolete or non-functional. An estimated 50 million tons of e-waste are produced each year, with only 15-20% recycled. Common sources of e-waste include computers, phones, TVs, and other electronics from homes, hospitals, government offices, and private businesses. While some e-waste is reused or repaired, most ends up in landfills or is improperly exported, where workers often handle it unsafely without protections. Proper e-waste recycling has benefits like recovering materials, reducing landfill use, and creating jobs, but current practices of disposal can contaminate the environment due to toxic chemicals in electronics. Stricter regulations and
This document provides information about Deshwal E-Waste Recycler, an authorized e-waste recycling company in Rajasthan, India. It discusses [1] the company's experience in electronics sales and motivation for starting e-waste recycling, [2] definitions and types of e-waste, [3] current unsafe disposal techniques, and [4] the company's environmentally friendly recycling process and membership benefits for customers.
The following PPT is about E Waste and its threat that India is facing. Since today the use of electronic goods have been increasing at a very high rate but at the same time waste of such electronics goods is also increasing. These waste cannot be dumped and the following PPT deals with the problems that we are going to face.
This document provides information about a book titled "The Complete Book on E-Waste Recycling (Printed Circuit Board, LCD, Cell Phone, Battery, Computers)". The 355-page book, published in 2015, covers topics like e-waste recycling processes for various electronic items, hazardous materials in e-waste, and the environmental impacts of improper e-waste disposal. It is intended as a reference for professionals and academics working in the field of e-waste recycling.
E-waste is a buzzword these days. Have you ever thought of how you can dispose of your electronic gadgets? Let’s explore what constitutes e-waste, the do's & dont’s for e-waste management and importance of e-waste management & recycling.
Let’s make our planet a healthier and safer place to live.
E-waste is electronic waste such as improperly disposed electronics. The fast development and discarding of new electronics has created a huge problem as recycling procedures in places like rural China lead to toxic materials like lead seeping into the environment. Pictures show waste recycling areas in China have become a focal point for toxic poisoning affecting human development and environmental cleanliness.
This document discusses e-waste (discarded electronics) and strategies for reducing and managing it. It notes that 50 million tons of e-waste are produced annually and describes three control measures: increasing lifespan through repair, reuse of discarded electronics, and recycling. Individual actions like donating or proper disposal are recommended. Electronics can be recycled through shredding or dismantling to recover materials like steel, copper, and circuit boards. CRT monitors require special recycling due to toxic leaded glass; the glass must be refined and separated from lead.
This document compares e-waste management practices between India and the US. In the US, consumer recycling options exist like donating or sending electronics back to manufacturers. Many corporations also offer takeback and recycling programs open to the public. In India, the government should establish regulatory agencies and laws around e-waste. Industries should take responsibility for the waste they generate and ensure proper training for handlers. Both countries need improved practices to protect the environment from e-waste.
This document provides information about TES-AMM Corporation (China) Ltd, a company that specializes in electronic waste management. It discusses China's growing production of e-waste and the environmental and health issues related to improper recycling. It outlines the regulations China has implemented to strengthen e-waste recycling, including the establishment of a special fund and requirements for labeling and qualified recyclers. The document also describes TES-AMM's global network of recycling facilities and provides details on some of its key sites in China.
E-waste is a growing problem due to the rapid obsolescence of electronics. It contains hazardous materials like lead that can pollute the environment if not disposed of properly. Most e-waste in India is handled by the informal sector and subject to unsafe practices like open burning and dumping. The formal sector only recycles 5% of e-waste. The government has introduced rules to promote safe and formal recycling, but more enforcement is still needed. Proper e-waste management requires cooperation between producers, government, and public to improve awareness, collection, and recycling.
e waste and its management.
E-waste is electronic products that are unwanted, not working, and nearing or at the end of their “useful life.” Computers, televisions etc.
What is E-waste? – What causes E-waste?: Rapid development of upgraded electronic equipments forces the disposal of outdated equipments. – What makes E-waste hazardous?: All electronic equipments are made up of materials, which are harmful to human and pollute the environment when exposed. The harmful materials used in the manufacture of electronic equipments are Lead, Mercury, Plastics, CFCs, Cadmium, etc. – Current status of E-waste: E-waste now a day’s forces the world experts to turn back, as it’s a rapid growing problem in the developed and developing countries to recycle it or to dispose it safely so that they don’t pose any environmental pollution or hazards. – What caused the current state of E-waste: The lack of awareness about the hazardous & polluting nature of E-waste. And the cost to recycle E-wastes. – How to control E-waste? Reduce and Recycle: When a equipment is not working it doesn’t mean that the whole equipment has spoiled but generally just one part. By trying to use the equipments as long as possible by getting it repaired at service centers helps in reducing the accumulation of E-wastes. On the other hand certain equipments have to be disposed, at that time recycling of them prevents E-waste. – How to recycle?: The recycling of E-waste is not a simple process that can be performed all were, as they deal with harmful materials, and which requires lot of stuffs. The recycle of E-waste is done in many categories according to the material out of which it is made. – Benefits of recycling E-waste: The electronic equipments are made of material or resources such as Lead, Mercury, Plastics, CFCs, Cadmium, etc., which are nonrenewable can be recovered by the recycling process. Thus preventing nonrenewable resources from becoming extinct. Due to the availability of resources by recycling too they may account for the decrease in cost of the equipments. – Why recycling of E-waste is costly: The recycling of E-waste is costly when compared to recycling of other matters. This is because the composition of the equipments are harmful the recycling of which should be done with extensive care in hi-tech manner with expensive tools. The recycling of E-waste requires large labor as the primary aspect of recycling them is to categories them in metals, plastic, glass, etc., for further processing. As major constituent of E-waste is circuit board the de-soldering of which requires labor? These things makes recycling of E-waste costly. – Steps to control E-waste: The major reason of E-waste is the lack of awareness about it among the consumers of the electronic equipments. The control of E-waste can be achieved by creating awareness to the consumers about the hazardous nature of the equipments on disposal while selling the products. The E-waste recycle centers should be in reach of the consumers to disclose them safely to the recycler. The produce of the electronic equipments can implement the E-waste recycle unit
This document discusses electronic waste (e-waste) and its management. It begins by defining e-waste as discarded electronic devices such as computers, TVs, and cell phones. It then notes that 50 million tons of e-waste are produced annually, much of which is improperly disposed of. The document outlines the various sources of e-waste and how electronics become waste. It also describes the toxic constituents in e-waste and their environmental and health impacts if not handled properly. Current e-waste disposal and recycling practices are discussed, along with their advantages and challenges. The conclusion emphasizes the need for safer e-waste management and increased awareness.
The document discusses electronic waste (e-waste) and its management. It provides background on e-waste, noting that it is waste from discarded electronic devices that are quickly replaced due to technological advances. It then discusses several key points around e-waste including that it contains hazardous materials, the short lifespans of electronics contribute to large volumes of e-waste, and that improper disposal can harm human health and the environment. The document concludes by emphasizing the importance of proper e-waste recycling and management.
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) is growing rapidly and poses several problems. It contains toxic materials like lead and takes up landfill space. Improper disposal pollutes the environment and harms human health. Options for management include reuse by repairing or upgrading devices, recycling to recover materials, and proper disposal. The government should create e-waste policies and incentivize collection/recycling to deal with this important issue.
The document discusses the growing problem of electronic waste (e-waste) worldwide. It notes that about 50 million tons of e-waste are produced annually, with much of it improperly disposed of. Only 15-20% is recycled, with the rest ending up in landfills or being burned. E-waste contains toxic heavy metals like lead, mercury, cadmium, which can leach into the environment and pose serious health risks. Developing countries that import e-waste for processing typically do so through informal recycling with little safety precautions, exposing workers and communities to the toxins. Urgent action is needed through better regulations, enforcement, and design of more sustainable electronics.
Circular Hotspot COP24 Side-Event: Circular Economy - The missing link in the...Diana de Graaf
There is growing awareness that the Circular Economy is a missing link in the Paris agenda and that it is urgent to strengthen the link between Circular Economy and the Climate Change Agenda. A circular economy aims to decouple economic growth from the use of natural resources and ecosystems by using those resources more effectively. During the COP24 climate summit in Katowice in December 2018, a coalition of European circular hotspots presented evidence and best practices of the circular economy as a means to bridge the gap in the climate agenda and identified where there is potential for scaling up.
The document discusses e-waste management in India. It provides background on what constitutes e-waste and why it needs to be managed. E-waste recycling occurs primarily in the informal sector through crude dismantling processes that are hazardous to health and the environment. The formal sector makes up a small portion of recycling. Improving the sustainability of e-waste management will require recognizing the important role of the informal sector, providing market information, incentivizing formal recycling, deploying mature recycling technologies, upskilling informal workers, and coordinating formal and informal sectors through policy instruments.
E-waste refers to electronic devices that are discarded after becoming obsolete or non-functional. An estimated 50 million tons of e-waste are produced each year, with only 15-20% recycled. Common sources of e-waste include computers, phones, TVs, and other electronics from homes, hospitals, government offices, and private businesses. While some e-waste is reused or repaired, most ends up in landfills or is improperly exported, where workers often handle it unsafely without protections. Proper e-waste recycling has benefits like recovering materials, reducing landfill use, and creating jobs, but current practices of disposal can contaminate the environment due to toxic chemicals in electronics. Stricter regulations and
This document provides information about Deshwal E-Waste Recycler, an authorized e-waste recycling company in Rajasthan, India. It discusses [1] the company's experience in electronics sales and motivation for starting e-waste recycling, [2] definitions and types of e-waste, [3] current unsafe disposal techniques, and [4] the company's environmentally friendly recycling process and membership benefits for customers.
The following PPT is about E Waste and its threat that India is facing. Since today the use of electronic goods have been increasing at a very high rate but at the same time waste of such electronics goods is also increasing. These waste cannot be dumped and the following PPT deals with the problems that we are going to face.
This document provides information about a book titled "The Complete Book on E-Waste Recycling (Printed Circuit Board, LCD, Cell Phone, Battery, Computers)". The 355-page book, published in 2015, covers topics like e-waste recycling processes for various electronic items, hazardous materials in e-waste, and the environmental impacts of improper e-waste disposal. It is intended as a reference for professionals and academics working in the field of e-waste recycling.
E-waste is a buzzword these days. Have you ever thought of how you can dispose of your electronic gadgets? Let’s explore what constitutes e-waste, the do's & dont’s for e-waste management and importance of e-waste management & recycling.
Let’s make our planet a healthier and safer place to live.
E-waste is electronic waste such as improperly disposed electronics. The fast development and discarding of new electronics has created a huge problem as recycling procedures in places like rural China lead to toxic materials like lead seeping into the environment. Pictures show waste recycling areas in China have become a focal point for toxic poisoning affecting human development and environmental cleanliness.
This document discusses e-waste (discarded electronics) and strategies for reducing and managing it. It notes that 50 million tons of e-waste are produced annually and describes three control measures: increasing lifespan through repair, reuse of discarded electronics, and recycling. Individual actions like donating or proper disposal are recommended. Electronics can be recycled through shredding or dismantling to recover materials like steel, copper, and circuit boards. CRT monitors require special recycling due to toxic leaded glass; the glass must be refined and separated from lead.
This document compares e-waste management practices between India and the US. In the US, consumer recycling options exist like donating or sending electronics back to manufacturers. Many corporations also offer takeback and recycling programs open to the public. In India, the government should establish regulatory agencies and laws around e-waste. Industries should take responsibility for the waste they generate and ensure proper training for handlers. Both countries need improved practices to protect the environment from e-waste.
This document provides information about TES-AMM Corporation (China) Ltd, a company that specializes in electronic waste management. It discusses China's growing production of e-waste and the environmental and health issues related to improper recycling. It outlines the regulations China has implemented to strengthen e-waste recycling, including the establishment of a special fund and requirements for labeling and qualified recyclers. The document also describes TES-AMM's global network of recycling facilities and provides details on some of its key sites in China.
E-waste is a growing problem due to the rapid obsolescence of electronics. It contains hazardous materials like lead that can pollute the environment if not disposed of properly. Most e-waste in India is handled by the informal sector and subject to unsafe practices like open burning and dumping. The formal sector only recycles 5% of e-waste. The government has introduced rules to promote safe and formal recycling, but more enforcement is still needed. Proper e-waste management requires cooperation between producers, government, and public to improve awareness, collection, and recycling.
e waste and its management.
E-waste is electronic products that are unwanted, not working, and nearing or at the end of their “useful life.” Computers, televisions etc.
What is E-waste? – What causes E-waste?: Rapid development of upgraded electronic equipments forces the disposal of outdated equipments. – What makes E-waste hazardous?: All electronic equipments are made up of materials, which are harmful to human and pollute the environment when exposed. The harmful materials used in the manufacture of electronic equipments are Lead, Mercury, Plastics, CFCs, Cadmium, etc. – Current status of E-waste: E-waste now a day’s forces the world experts to turn back, as it’s a rapid growing problem in the developed and developing countries to recycle it or to dispose it safely so that they don’t pose any environmental pollution or hazards. – What caused the current state of E-waste: The lack of awareness about the hazardous & polluting nature of E-waste. And the cost to recycle E-wastes. – How to control E-waste? Reduce and Recycle: When a equipment is not working it doesn’t mean that the whole equipment has spoiled but generally just one part. By trying to use the equipments as long as possible by getting it repaired at service centers helps in reducing the accumulation of E-wastes. On the other hand certain equipments have to be disposed, at that time recycling of them prevents E-waste. – How to recycle?: The recycling of E-waste is not a simple process that can be performed all were, as they deal with harmful materials, and which requires lot of stuffs. The recycle of E-waste is done in many categories according to the material out of which it is made. – Benefits of recycling E-waste: The electronic equipments are made of material or resources such as Lead, Mercury, Plastics, CFCs, Cadmium, etc., which are nonrenewable can be recovered by the recycling process. Thus preventing nonrenewable resources from becoming extinct. Due to the availability of resources by recycling too they may account for the decrease in cost of the equipments. – Why recycling of E-waste is costly: The recycling of E-waste is costly when compared to recycling of other matters. This is because the composition of the equipments are harmful the recycling of which should be done with extensive care in hi-tech manner with expensive tools. The recycling of E-waste requires large labor as the primary aspect of recycling them is to categories them in metals, plastic, glass, etc., for further processing. As major constituent of E-waste is circuit board the de-soldering of which requires labor? These things makes recycling of E-waste costly. – Steps to control E-waste: The major reason of E-waste is the lack of awareness about it among the consumers of the electronic equipments. The control of E-waste can be achieved by creating awareness to the consumers about the hazardous nature of the equipments on disposal while selling the products. The E-waste recycle centers should be in reach of the consumers to disclose them safely to the recycler. The produce of the electronic equipments can implement the E-waste recycle unit
This document discusses electronic waste (e-waste) and its management. It begins by defining e-waste as discarded electronic devices such as computers, TVs, and cell phones. It then notes that 50 million tons of e-waste are produced annually, much of which is improperly disposed of. The document outlines the various sources of e-waste and how electronics become waste. It also describes the toxic constituents in e-waste and their environmental and health impacts if not handled properly. Current e-waste disposal and recycling practices are discussed, along with their advantages and challenges. The conclusion emphasizes the need for safer e-waste management and increased awareness.
The document discusses electronic waste (e-waste) and its management. It provides background on e-waste, noting that it is waste from discarded electronic devices that are quickly replaced due to technological advances. It then discusses several key points around e-waste including that it contains hazardous materials, the short lifespans of electronics contribute to large volumes of e-waste, and that improper disposal can harm human health and the environment. The document concludes by emphasizing the importance of proper e-waste recycling and management.
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) is growing rapidly and poses several problems. It contains toxic materials like lead and takes up landfill space. Improper disposal pollutes the environment and harms human health. Options for management include reuse by repairing or upgrading devices, recycling to recover materials, and proper disposal. The government should create e-waste policies and incentivize collection/recycling to deal with this important issue.
The document discusses the growing problem of electronic waste (e-waste) worldwide. It notes that about 50 million tons of e-waste are produced annually, with much of it improperly disposed of. Only 15-20% is recycled, with the rest ending up in landfills or being burned. E-waste contains toxic heavy metals like lead, mercury, cadmium, which can leach into the environment and pose serious health risks. Developing countries that import e-waste for processing typically do so through informal recycling with little safety precautions, exposing workers and communities to the toxins. Urgent action is needed through better regulations, enforcement, and design of more sustainable electronics.
Circular Hotspot COP24 Side-Event: Circular Economy - The missing link in the...Diana de Graaf
There is growing awareness that the Circular Economy is a missing link in the Paris agenda and that it is urgent to strengthen the link between Circular Economy and the Climate Change Agenda. A circular economy aims to decouple economic growth from the use of natural resources and ecosystems by using those resources more effectively. During the COP24 climate summit in Katowice in December 2018, a coalition of European circular hotspots presented evidence and best practices of the circular economy as a means to bridge the gap in the climate agenda and identified where there is potential for scaling up.
This document discusses an English project on e-waste conducted by 8 students. It defines e-waste, sources of e-waste generation in India, and the problems caused by improper e-waste disposal. It also describes the current practices of e-waste recycling and management in India. The students conducted a survey that found most people are unaware of e-waste issues and do not dispose of it properly. It concludes that citizens and industries both need to take responsibility to increase awareness and safe e-waste disposal.
This document discusses making hospitals more environmentally sustainable. It notes that hospitals are heavy energy consumers, produce large amounts of waste, and use toxic substances. Going green can improve health outcomes by reducing pollution and accidents while cutting costs. The document outlines a conceptual framework for sustainable healthcare that includes eco-friendly construction, energy/water savings, reducing pollution emissions, sustainable purchasing, and waste sorting/recycling. It stresses the importance of prevention and addressing environmental health risks, and notes the poor are most impacted so regulations and financing need to support sustainable improvements in all facilities.
This document discusses electronic waste (e-waste) management in India. It begins by explaining how increased technology usage has led to growing e-waste. E-waste contains toxic materials like lead, cadmium, and mercury, so it cannot be disposed of with regular trash. India imports much e-waste and its generation is increasing 10% annually. It then outlines Samsung's e-waste recycling program called STAR and its goals to conserve resources and prevent pollution. The document also discusses e-waste recycling and disposal methods, the need for government regulation and extended producer responsibility, and existing e-waste recycling facilities in India.
This document discusses various types of pollution including water, air, and noise pollution and their effects on public health. It provides definitions of hygiene, sanitation, and safe drinking water. Major sources of water, air, and noise pollution are outlined. The document also examines the health impacts of various water-borne and water-related diseases and the effects of air pollution on respiratory and cardiac health. Prevention and control measures for different types of pollution are suggested.
Anders Wijkman_Nordic Health and Welfare Innovation ArenaNordic Innovation
This document discusses how public procurement can help improve public services, address societal challenges, and spur innovation. It notes that public procurement represents around 20% of the economy in many areas and the public sector is a major actor. Public procurement can be used as an effective tool to stimulate innovative and transformative solutions, especially with the increased flexibility of the new EU public procurement directive. When done right with a focus on quality over price and whole lifecycle costs, public procurement policies that incorporate environmental and social requirements can positively impact goals for sustainability and innovation.
Waste management is an important public health issue in India due to the large amount of waste generated and improper disposal methods used. The document discusses the different types of waste produced, including solid, liquid, hazardous, biomedical, and e-waste. It outlines the ideal integrated solid waste management system and compares it to the current inadequate practices in India. The challenges faced in waste management are also examined, such as the lack of segregation, expertise, and funding. Proper waste treatment and disposal methods are described for different categories of waste.
Waste management is an important issue due to the large amounts of waste generated from various sources. There are different types of waste classified by physical state (solid, liquid, gaseous), biodegradability, and effects on health. An ideal waste management system minimizes environmental impacts and maximizes resource recovery. In India, most cities currently have crude waste disposal practices. Integrated solid waste management aims to reduce, reuse, and recycle waste through various approaches. Special types of waste like e-waste, hazardous waste, and biomedical waste require specific management and disposal methods due to their harmful effects.
ILC-UK, New Dynamics of Ageing and the Actuarial Profession debate: Improving...ILC- UK
Telecare and telemedicine can improve health outcomes and save money, argued the Prime Minister late last year. The Whole System Demonstrator (WSD) programme was set up by the Department of Health to attempt to, amongst other things, explore the evidence base as to the effectiveness and cost-effectiveness of these technologies.
The findings were striking. “If delivered properly, telehealth can substantially reduce mortality, reduce the need for admissions to hospital, lower the number of bed days spent in hospital and reduce the time spent in A&E” argued the DH.
The randomised control trial of over 6,000 patients found that if delivered properly, telehealth can deliver:
45% reduction in mortality rates
20% reduction in emergency admissions
15% reduction in A&E visits
14% reduction in elective admissions
14% reduction in bed days
8% reduction in tariff costs
Yet whilst claims about the potential of technology have been made for many years, embedding such technologies into people’s homes and lives has proved difficult.
The usability and accessibility of new technologies, the digital divide, a lack of funding for prevention, and a lack of trust and knowledge among healthcare professionals are among the many reasons why new technologies have sometimes failed to meet their potential.
At this event, Leela Damodaran, discussed how research into new technologies can help us age well and provide an overview of NDA research findings. She also highlight how we can most effectively deliver new technology.
Speakers presented the current evidence base in relation to the cost effectiveness of healthcare technologies.
ILC-UK presented findings of new work, supported by Nominet Trust, which will explore whether we can nudge people online.
As well as the debate, there were a number of Technology Showcases: Mappmal: hospitalfoodie; SomnIA; Design for Ageing Well; TACT3; Envision to envisage; Making the Kitchen Easier; NANA; Keeping Older People Connected; Safety on Stairs
Agenda from the event
15.00 – 16.30
Technology Showcases
16.30 – 16.35
Baroness Sally Greengross – Chief Executive, International Longevity Centre – UK
16.35 – 16.40
Alan Walker - Professor of Social Policy and Social Gerontology, Director of the New Dynamics
16.40 – 17.00
Mark Hawley – Professor of Health Service Research, University of Sheffield
17.00 – 17.10
Dr Nick Goodwin – Senior Fellow, Health Policy, The King’s Fund
17.10 – 17.25
Leela Damodaran – Professor of Participative Design and Change Management, Loughborough University
17.25 – 17.35
David Sinclair – Assistant Director, Research and Strategy, International Longevity Centre – UK
17.35 – 18.25
Discussion and Debate
18.25 – 18.30
Close - Baroness Sally Greengross – Chief Executive, International Longevity Centre – UK
18:30
Refreshments/Networki
Waste management is an important issue due to the large amounts of waste generated worldwide from various sources such as homes, businesses, industries, and agriculture. Waste can be classified based on its physical state as solid, liquid, or gaseous, and as biodegradable or non-biodegradable. The management of different types of waste such as municipal solid waste, hazardous waste, biomedical waste, e-waste, and liquid waste presents different challenges. An ideal waste management system aims to minimize waste generation and maximize resource recovery through methods like reducing, reusing, recycling, and proper treatment and disposal.
The document discusses creative practices and environmental choices. It outlines that reducing CO2 emissions by 80% by 2050 is needed to prevent catastrophic climate change. Transforming to a low-carbon society will require energy conservation, alternative energy sources, innovative technologies, and behavioral changes. Creative businesses can adapt to these needs by reducing waste, choosing sustainable materials and energy sources, and implementing practices like recycling and composting. Analysis tools can help measure a business' carbon footprint and embodied energy to guide more environmentally friendly choices.
This document discusses electronic waste (e-waste), which is any broken or unwanted electrical/electronic equipment. It is growing rapidly due to factors like technology changes and planned obsolescence. Around 50 million tons of e-waste is produced globally each year, with only 15-20% recycled. E-waste contains toxic substances like lead, mercury, and sulfur, which can harm the environment and human health through water/soil pollution and health issues. Proper e-waste management and more sustainable product design are needed to address this significant global challenge.
E-waste consists of discarded electronic items like computers, printers, and cell phones. It is one of the fastest growing waste streams worldwide. Sources of e-waste include the private sector, government offices, hospitals, and homes. If not properly managed, e-waste poses health and environmental risks due to toxic materials. Legislation in countries like India and the US aim to increase e-waste recycling and reduce improper disposal through take-back programs and recycling targets for manufacturers. Proper e-waste management includes collection, sorting, transportation, and recycling to recover valuable materials and avoid pollution.
The document discusses adhesive bonding as an alternative joining method to welding, soldering, mechanical fasteners, and other techniques. It covers bonding theory, surface treatment methods, adhesive types, design considerations, examples of bonding applications, and trends in the industry. Success in bonding projects requires close collaboration between the customer, adhesive manufacturer, and equipment suppliers from the initial design phase.
The document discusses achieving reliable micro interconnections with long lifetime expectations. It describes common failure mechanisms for solder and adhesive micro interconnects, such as fatigue, creep, corrosion and brittle fracture. It also discusses how to improve interconnect design through careful material selection, understanding failure mechanisms, analyzing stress conditions, improving product design with modeling, and exploring new technologies like laser-induced forward transfer. The goal is to create systems with enhanced lifetimes through optimized interconnect design and technology.
Benjamin Mehlmann - Fraunhofer InstituteThemadagen
This document discusses laser micro joining processes and applications in research and development. It outlines laser beam sources and beam manipulation strategies used for micro joining applications in energy storage, electronics, and lightweight construction. Current approaches in research include welding copper with spatial and temporal power modulation to increase weld depth and quality. Developments aim to enable precision melt engineering through dynamic beam manipulation and modeling of laser micro joining processes.
This document discusses organic photovoltaic (OPV) technology and the Solliance OPV Program. The program aims to develop a complete technology toolbox for OPV to improve efficiency, lifetime, and lower costs. Current status shows efficiencies over 10% in the lab but lower efficiencies in modules. The program focuses on both solution processing and evaporated OPV using scalable printing and coating techniques. The goal is to achieve over 13% cell efficiency, 5% module efficiency, and manufacturing costs below €0.50/Wp by 2015.
This document provides an overview of a presentation on organic and printed electronics. The presentation covers topics such as OLED lighting and its potential market impact if OLEDs capture 10% of the lighting replacement market. It also discusses flexible OLEDs and OPVs, noting their potential applications in rollable, wearable, and easily integrated devices. The presentation reviews roll-to-roll manufacturing processes for these applications and the importance of techniques like slot die coating to enable low-cost, large-area production. It emphasizes the need for strict contamination control in OLED manufacturing. Finally, it provides a high-level summary and introduces the Holst Centre's work on large-area printing and coating technologies.
The document discusses research on smart materials for conformable electronics and photonics being conducted by Holst Centre. Holst Centre is an independent research organization co-founded by IMEC and TNO that focuses on creating generic technologies for flexible electronics. The presentation provides an overview of Holst Centre's work on organic light-emitting diodes (OLEDs) including applications, lifetime considerations, conformable technology approaches, and a vision for conformable electronic and photonic systems featuring wearable and stretchable designs.
Avantes is a developer and manufacturer of compact spectrometers, light sources, fiber optics, and accessories. It has sold over 17,000 spectrometers since 1994 and has annual worldwide sales of 10 million euros. Avantes uses its core spectrometer technology across multiple markets including life sciences and health, industrial processes, optical diagnosis spectroscopy and imaging, safety and security, agriculture and food, and green energy and environment. The document provides examples of spectroscopy applications for Avantes' products in areas such as LED measurements, solar panel measurements, thin film measurements, blood analyses, and food quality analysis.
The document describes the development of a low-cost ammonia sensor called the miniDOAS that uses UV spectrometry. It was created to address the need for more affordable ammonia monitoring by adapting the established Differential Optical Absorption Spectroscopy (DOAS) technique using less expensive components. Testing showed it can measure ammonia concentrations comparably to the research-grade RIVM DOAS system, but at a fraction of the cost. Further development aims to commercialize the miniDOAS for wider air quality monitoring and research applications.
1) Additive manufacturing (AM) opens revolutionary opportunities for high tech equipment development by enabling new and innovative mechatronic system designs.
2) AM can help address challenges for high tech equipment like improving accuracy, productivity, and reducing costs by providing ultimate design freedom and integration capabilities.
3) For high tech systems, AM enables new solutions like lightweight, integrated, and freeform designs which conventional manufacturing cannot achieve. AM moves manufacturing from "design for manufacturing" to "manufacturing for design."
Standardization of additive manufacturing is important for three reasons: 1) properties of additively manufactured parts are not consistent according to a standard, making industrial uptake impossible; 2) the fast evolution of additive manufacturing has outpaced traditional standardization procedures; and 3) over-regulation of existing industries makes it difficult for additive manufacturing to compete as a new technology. There are active standardization efforts occurring through various international standards organizations like ISO and CEN, as well as in the US, EU, and other countries to develop standards that will enable the quality control, data processing, materials, and other aspects needed for industrial