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GRENZE International Journal of Engineering and Technology Vol. 11 (2025), Issue 1

Applications Overview in E-Waste Sorting and Recycling Processes using AI ML Concepts

Authors

Vibha V. Shreedhara, Sakshi Gupta, Aman Kumar, Manish R, Pavithra G

Abstract

The growing volume of electronic waste (e-waste) poses substantial challenges for waste management and environmental sustainability. With increasing production and consumption of electronic devices, managing e-waste has become more complex, and traditional methods of sorting and recycling are proving inadequate. These conventional techniques are labor-intensive, inefficient, and prone to contamination, resulting in significant resource loss and environmental harm. Given the harmful effects of improper e-waste management, there is an urgent need for innovative solutions to enhance the efficiency and effectiveness of e-waste recycling. This paper explores the potential of Artificial Intelligence (AI) in revolutionizing the e-waste sorting and recycling process. By leveraging advancements in machine learning, computer vision, and robotics, AI can automate the identification, classification, and separation of various e-waste components with greater accuracy and efficiency. AI-based systems have shown a remarkable capability to recognize and sort complex materials, reducing errors that arise from manual processes. The integration of machine learning algorithms and robotic arms enables e-waste recycling facilities to achieve high levels of automation, significantly improving operational speed and reliability. The use of AI-driven technologies provides several advantages in addressing current limitations of e-waste management. AI-based spectral analysis and object detection techniques have been successful in improving the sorting accuracy of valuable materials, while reinforcement learning algorithms have helped optimize resource recovery processes. This minimizes reliance on manual labor, reduces worker exposure to hazardous substances, and enhances material recovery rates, ultimately decreasing the environmental impact of discarded electronics. Additionally, AI offers opportunities to ensure worker safety by reducing the need for human intervention in dangerous recycling tasks, fostering a safer and more efficient working environment. The high initial cost of AI systems, along with data dependency for training algorithms and ongoing system maintenance, limits the widespread adoption of this technology in recycling facilities. Through empirical case studies, this paper demonstrates the effectiveness of AI in transforming e-waste recycling, while also highlighting the need for addressing these challenges. Future research should focus on improving scalability, reducing costs, and adapting AI systems to diverse recycling contexts to support more sustainable e-waste management practices.