Sensor fusion technology is essential for robots to achieve full-coverage obstacle avoidance, integrating multiple sensors for comprehensive information processing.
AGVs benefit from multi-sensor fusion by enhancing obstacle detection accuracy through the integration of LiDAR, vision, and ultrasonic data.
System reliability is increased by redundant sensor design and noise filtering algorithms like Kalman filtering to ensure continuous obstacle avoidance.
Environmental adaptability is extended by dynamically switching sensors based on the scenario, optimizing obstacle avoidance in complex environments.
Optimizing decision-making through multi-sensor partition sensing and environment modeling enables AGVs to plan and navigate optimal paths.
Fusion methods involve data-level unification, feature-level integration, and decision-level weighting to enhance obstacle avoidance efficiency.
Environment sensing includes distant and near detection, obstacle definition, and semantic mapping, aiding in intelligent obstacle avoidance decision-making.
Real-time obstacle avoidance algorithms use depth cameras, IMUs, and path re-planning strategies to ensure AGVs navigate complex environments efficiently.
Challenges in AGV obstacle avoidance include bionic strategies, neural fusion, brain-like architectures, co-computing, simulation migration, and population intelligence.
Future directions focus on bionic strategies, neural fusion models, brain-like architectures, co-computing, simulation migration, and population intelligence to enhance AGV obstacle avoidance capabilities.
The goal is to create an intelligent system with human-like driving capabilities in complex environments, emphasizing safety, efficiency, and ethics.