Improvements for logistics and supply chain for E-waste materials: Technological developments are shaping trends providing efficiency, transparency, reduced waste/loss, and traceability/transparency. |
Technology trends actively enable improvements in models and service solutions for logistics supply chain management for E-waste materials. Internet of Things (IOT) tracking systems find various applications to E-waste landfills and E-waste: IOT devices planted within E-waste and E-waste infrastructure are utilised for tracking, collection to processing, and possibly the entire life cycle of E-waste recycling, among various other applications. IoT technology also enables the streamlining of logistics processes within E-waste. |
Technology yielding Improvements in process engineering: |
AI-based sorting and separation: AI-based sorting and separation are utilised for e-waste, increasing efficiency and improving accuracy. Many E-waste material collections require sorting; AI-based sorting and separation enable automation. Developments shaping recovery technologies for E-waste metals are Processes such as hydrometallurgy and pyrometallurgy. |
Systems and integration: Technology for E-waste environments would be enabling integrated E-waste recycling ecosystems and marketplaces: |
Due to networks like the Internet and devices such as smartphones, smartphone applications provide increased integration for E-waste recycling ecosystems and marketplaces. ● Smartphone/mobile applications for E-waste collection: Mobile applications for E-waste collection are used to facilitate and detect E-waste, recording, and integration for E-waste recycling ecosystems/marketplaces. |
Incorporation and development of E-waste training & education: |
Increases in technology are aiding training and education for E-waste recycling. Among some cutting edges are simulations, augmented reality, and virtual reality training provided for actors, staff, and students in e-waste research. ● E-waste simulation software may be used for training, education, and infotainment. ● Virtual reality training experiences for E-waste collection education. ● Augmented reality applications may be utilised for education purposes. |
Technologies for monitoring, security, access and control: |
Among trends are technologies for monitoring, e-waste collections, security, and accessing/control functionalities, which are improved in models and use. Drone technology, in particular, is utilised to sweep and fly over E-waste sites and for security/monitoring purposes. Various approaches are utilised to create digital solutions encompassing innovative technology, IOT, drone technology, and automation. Applications of analytics for facilities and E-waste landfills enable the development of security solutions and architectures that are more efficient, secure, and effective alternatives. |
Technologies utilising Nanotechnology and Nanobiotechnology are increasingly finding utilisation and application in E-waste Treatment: |
Nanotechnology applications for E-waste treatment include removal of pollutants and recovery of materials. Nanobiotechnology in e-waste treatment is utilised, and various approaches incorporating nanotechnology for e-waste treatment are currently being researched. |
Technologies within engineering and design, developments field by AI and research, are aiding the design and engineering of recycling facilities: |
Waste management battery recycling: Applications of artificial intelligence and machine learning lead to innovations and improvements in the design & engineering of recycling facilities. |
Technology solution for Cloud-based E-waste data management: |
Applications of cloud platforms for central data management, including increasing collaboration & sharing of information between relevant stakeholders. |
Applications and trends in technologies are Improving the safety of E-waste workers: |
Via inclusion of wearable safety technology, such as intelligent helmets & sensors enhancing safety, monitoring for workers in E-waste recycling facilities and landfills. |
Applications of technology enable 3D printing for recycling components: |
3D printing is utilised to create novel components from recycled materials. Reducing the quantities of E-waste for traditional recycling methods. |
Design, development and manufacturing of Energy efficient recycling equipment for sustainability and reduction in carbon footprints and environmental impact: |
E waste recycling in Delhi: Energy-efficient recycling equipment and technology are trends currently emerging and leading through green initiatives and sustainability. Actively shaping trends and technology utilised for e-waste recycling is a stated objective among initiatives globally impacting the recycling scene in Delhi. |
Application of Blockchain technology finds application in E-waste: |
Blockchain technology finds applications in utilising blockchains' uses, such as creating secure systems for tracking e-waste movements and transactions. Blockchain technologies assist in providing responsible recycling practices and reducing illegal dumping. |