More Details information is necessary to ewaist.

First as an e-waste, we have to start to collect the wastes through hub. And also it should start from batteries and then lead to big electronic wastes like mobile,laptop and tv etc. As the process of separation of the electronic wastes are too difficult that leads to junk the earth. As we have some process to extract the e-waste and make it has resuse in other appliances

विद्युत और इलेक्ट्रॉनिक उपकरणों के संबंध में मेरे निम्नलिखित सुझाव हैं। -जब इनके कचरों को प्रतिष्ठानों, आवासों व कार्यालयों में देखता हूं तो स्टोरेज व्यय का अंदाजा लग जाता है। इस व्यय से बचने के लिए तीन विकल्प पर त्वरित कारवाई होनी चाहिए। -पहला तो संभव हो तो उसे तुरंत मरम्मत कर ठीक करा लिया जाय। -दूसरा उसे निर्माता इकाई को उचित पूर्व निर्धारित मूल्य पर लौटा दिया जाय। -तीसरा उससे कच्चा माल का निष्कासन करने वाले इकाई को सुपुर्द कर दिया जाय जहां पर कचरों को मानक विधि द्वारा प्रोसेस किया जाय।

More details are necessary.

Just create EEE Scrap Bank like recently created Bad Bank for NPA of banks under leadership of SBI

Melt it in a furnace.

Be a good consumer. Do some research when you’re ready to buy a new product. Make sure it’s one that won’t break easily or become damaged shortly after you purchase it. In other words, look for products likely to have a much longer lifespan so you won’t need to replace it within a few years, or even months. It’s known that this is a common practice in the electronics industry; to make products with shorter life spans so more money can be earned in the long run when they break or malfunction. Reuse as often as possible. If you have parts and equipment that are still working, try repairing the electronic device before getting a new one. And if the device is beyond the point of being repaired, then recycle it. Educate yourself on what gets put into your electronics. Knowledge is power. Doing some research about the raw materials being used to manufacture your mobile phone or laptop helps you understand how harmful those materials and toxins can be if they’re tossed into a landfill.

Be a good consumer. Do some research when you’re ready to buy a new product. Make sure it’s one that won’t break easily or become damaged shortly after you purchase it. In other words, look for products likely to have a much longer lifespan so you won’t need to replace it within a few years, or even months. It’s known that this is a common practice in the electronics industry; to make products with shorter life spans so more money can be earned in the long run when they break or malfunction. Reuse as often as possible. If you have parts and equipment that are still working, try repairing the electronic device before getting a new one. And if the device is beyond the point of being repaired, then recycle it. Educate yourself on what gets put into your electronics. Knowledge is power. Doing some research about the raw materials being used to manufacture your mobile phone or laptop helps you understand how harmful those materials and toxins can be if they’re tossed into a landfill.

Sustainability's imperative of economic development in tandem with social advancement and environmental protection is widely accepted, but much debate remains about the practical implications for the products, materials and technologies for the future. The challenge remains to turn sustainability into a value-adding framework for innovation in processes, technologies, business models and management systems. This position paper therefore explores how sustainability can drive innovation in materials and materials' technologies, by reviewing pertinent ideas and experiences gained in a cross section of industry sectors, in regard to eco-efficiency, green chemistry, green engineering and industrial ecology. These convene around three cross cutting themes for sustainable innovations, respectively the fate of industrial materials, the compatibility of industrial materials and processes with natural materials and processes, and the materials intensity of industrial products and processes.

Sustainability's imperative of economic development in tandem with social advancement and environmental protection is widely accepted, but much debate remains about the practical implications for the products, materials and technologies for the future. The challenge remains to turn sustainability into a value-adding framework for innovation in processes, technologies, business models and management systems. This position paper therefore explores how sustainability can drive innovation in materials and materials' technologies, by reviewing pertinent ideas and experiences gained in a cross section of industry sectors, in regard to eco-efficiency, green chemistry, green engineering and industrial ecology. These convene around three cross cutting themes for sustainable innovations, respectively the fate of industrial materials, the compatibility of industrial materials and processes with natural materials and processes, and the materials intensity of industrial products and processes.