Safe and Efficient Robot Navigation

The field of robotics is moving towards developing more safe and efficient navigation systems. Researchers are focusing on creating real-time control systems that can adapt to unknown environments and avoid obstacles. This includes the use of novel control barrier functions, model predictive control, and machine learning algorithms to ensure safe and efficient navigation. Notable papers in this area include: A Real-Time Control Barrier Function-Based Safety Filter for Motion Planning, which provides formal guarantees for collision avoidance with road boundaries. RNBF: Real-Time RGB-D Based Neural Barrier Functions for Safe Robotic Navigation, which presents a real-time, vision-based framework for constructing continuous, first-order differentiable Signed Distance Fields of unknown environments. NMPCB: A Lightweight and Safety-Critical Motion Control Framework, which proposes a novel motion control framework that achieves a balance between real-time performance and safety.

Sources

Real-time Two-tape Control System in Vine robots

An Efficient Real-Time Planning Method for Swarm Robotics Based on an Optimal Virtual Tube

NMPCB: A Lightweight and Safety-Critical Motion Control Framework

Probabilistic Method for Optimizing Submarine Search and Rescue Strategy Under Environmental Uncertainty

RNBF: Real-Time RGB-D Based Neural Barrier Functions for Safe Robotic Navigation

A Real-Time Control Barrier Function-Based Safety Filter for Motion Planning with Arbitrary Road Boundary Constraints

Enabling Robots to Autonomously Search Dynamic Cluttered Post-Disaster Environments

Model Predictive Fuzzy Control: A Hierarchical Multi-Agent Control Architecture for Outdoor Search-and-Rescue Robots

NMPC-Lander: Nonlinear MPC with Barrier Function for UAV Landing on a Mobile Platform

SatAOI: Delimitating Area of Interest for Swing-Arm Troweling Robot for Construction

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