Advances in Robot Navigation and Control

The field of robot navigation and control is rapidly advancing, with a focus on developing innovative methods for motion planning and control in complex environments. Researchers are exploring new approaches to overcome the limitations of traditional methods, such as the use of model predictive control, fuzzy logic, and hybrid actuation mechanisms. These advances are enabling robots to navigate and interact with their environments in more sophisticated ways, including the ability to switch between different modes of locomotion, such as driving and flying, and to adapt to changing environmental conditions. Noteworthy papers in this area include:

  • DRPA-MPPI, which introduces a dynamic repulsive potential augmented MPPI for reactive navigation in unstructured environments, and
  • Decremental Dynamics Planning, which integrates dynamic constraints into the entire planning process for improved robot navigation performance.

Sources

Ground and Flight Locomotion for Two-Wheeled Drones via Model Predictive Path Integral Control

Extending First-order Motion Planners to Second-order Dynamics

Cooperative Control of Multi-Quadrotors for Transporting Cable-Suspended Payloads: Obstacle-Aware Planning and Event-Based Nonlinear Model Predictive Control

Dom, cars don't fly! -- Or do they? In-Air Vehicle Maneuver for High-Speed Off-Road Navigation

Optimal Path Planning and Cost Minimization for a Drone Delivery System Via Model Predictive Control

Hybrid Magnetically and Electrically Powered Metallo-Dielectric Janus Microrobots: Enhanced Motion Control and Operation Beyond Planar Limits

DRPA-MPPI: Dynamic Repulsive Potential Augmented MPPI for Reactive Navigation in Unstructured Environments

Decremental Dynamics Planning for Robot Navigation

Fuzzy-Logic-based model predictive control: A paradigm integrating optimal and common-sense decision making

Built with on top of