Advanced Path Planning and Navigation for Autonomous Mobile Robots
Novel path planning algorithms for autonomous mobile robots operating in complex and dynamic environments, with emphasis on real-time performance and obstacle avoidance.
Authors
Z. Xu, K. Shimada
Publication Details
Advanced Path Planning and Navigation for Autonomous Mobile Robots
This research develops advanced path planning and navigation algorithms for autonomous mobile robots operating in complex and dynamic environments, addressing critical challenges of dynamic obstacles, real-time constraints, optimal planning, and robustness under sensor noise and uncertainties. The work creates multi-layered planning architectures for different time horizons, machine learning systems for environment prediction and adaptation, robust optimization techniques for uncertainty handling, and safety-critical control with formal verification methods. Key technical innovations include efficient data structures for real-time planning, GPU-accelerated computation for complex scenarios, adaptive planning horizons based on environment complexity, and seamless integration with modern sensor technologies for enhanced perception and decision-making capabilities.
Warehouse automation and service robotics applications benefit from superior planning speed and quality, robust operation in dynamic environments, scalability to complex multi-robot scenarios, and practical applicability to real-world deployments including search and rescue operations and autonomous vehicle navigation. The work demonstrates significant improvements through comprehensive validation in virtual environments, benchmark scenarios, and field testing in indoor navigation and outdoor unstructured environments. Robotics companies and automation providers can leverage this expertise for developing next-generation autonomous systems, implementing advanced planning algorithms, creating multi-robot coordination frameworks, and establishing safety-critical platforms that enable efficient warehouse operations, service robotics deployment, emergency response capabilities, and autonomous vehicle navigation with real-time performance and optimal trajectory generation.
Acknowledgments
This work was supported by research grants and collaborations with industry partners. We thank the robotics community for providing benchmark datasets and evaluation frameworks.
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Publication Info
Venue
IEEE International Conference on Robotics and Automation (ICRA)
Pages
TBD
Year
2024
DOI
TBD
Topics