Intelligent Robots and Systems for Advanced Manufacturing and Automation
Development of intelligent robots and systems for advanced manufacturing and automation, focusing on adaptive behavior, learning capabilities, and integration with smart manufacturing environments.
Authors
L. Jing, K. Shimada
Publication Details
Intelligent Robots and Systems for Advanced Manufacturing and Automation
Intelligent robotics in manufacturing represents a paradigm shift toward autonomous production systems that require adaptive intelligence, autonomous decision-making capabilities, and safe human-robot collaboration to enhance efficiency and flexibility in smart manufacturing environments. This research addresses the critical need for cognitive robotics frameworks by developing an integrated architecture that combines multi-modal sensor fusion, reinforcement learning for skill acquisition, and digital twin technology for real-time performance monitoring and optimization. The core innovation lies in the adaptive control systems that utilize deep learning for perception and recognition, transfer learning for rapid task adaptation, and meta-learning algorithms that enable robots to learn how to learn from operational experience. Key technical challenges overcome include development of robust reasoning engines for autonomous decision-making, implementation of natural language and gesture interfaces for intuitive human-robot interaction, and creation of cyber-physical systems that seamlessly integrate with enterprise resource planning (ERP) and manufacturing execution systems (MES).
The developed intelligent robotics framework finds extensive applications across automotive manufacturing for flexible assembly and multi-product line reconfiguration, electronics production for precision component placement and quality inspection, and pharmaceutical manufacturing for automated packaging and regulatory compliance tracking. Practical benefits include significant productivity improvements through intelligent automation and adaptive scheduling, enhanced quality control through predictive analytics and defect prevention, and improved workplace safety through collaborative robotics with collision detection and ergonomic task allocation. The broader research impact encompasses advancement of foundation models for general-purpose robotics, establishment of safety standards including ISO 10218 and ISO/TS 15066 compliance for collaborative robotics, and development of comprehensive workforce development programs addressing skills gaps and cultural adaptation to automation. The team’s expertise in cognitive robotics, machine learning integration, and smart manufacturing connectivity positions them to collaborate with automotive manufacturers, electronics companies, and pharmaceutical producers seeking to implement intelligent automation systems and pursue emerging opportunities in foundation models for general-purpose robotics, federated learning for collaborative robot networks, and quantum computing for complex manufacturing optimization problems.
For complete technical details and experimental results, please refer to the original publication: iros-jing-2020.pdf
Publication Info
Venue
IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS)
Pages
6423-6430
Year
2020
DOI
TBD
Topics