Project overview
This project investigates resilient autonomy for mobile robots operating in complex forest environments. Forests provide a demanding but accessible real-world testbed in which autonomous systems must cope with irregular terrain, dense vegetation, uncertain perception and physical interactions that are difficult to reproduce in controlled laboratory environments.
The research examines how wheeled and legged robots can perceive, navigate and remain operational under these conditions. Current work includes robust navigation with limited or uncertain sensing, detection and characterisation of robot entrapment, and perception-driven approaches to autonomous operation and recovery in forests. A particular emphasis is placed on low-cost and resource-efficient autonomy, reducing dependence on expensive sensing, computation and highly engineered platforms.
The broader aim is to develop autonomous systems that remain effective when the environmental and physical conditions encountered in deployment differ from those assumed during their design.
The research examines how wheeled and legged robots can perceive, navigate and remain operational under these conditions. Current work includes robust navigation with limited or uncertain sensing, detection and characterisation of robot entrapment, and perception-driven approaches to autonomous operation and recovery in forests. A particular emphasis is placed on low-cost and resource-efficient autonomy, reducing dependence on expensive sensing, computation and highly engineered platforms.
The broader aim is to develop autonomous systems that remain effective when the environmental and physical conditions encountered in deployment differ from those assumed during their design.
Staff
Lead researchers
Other researchers
Collaborating research institutes, centres and groups
Research outputs
Chaoyue Niu, Callum Newlands, Klaus-Peter Zauner & Danesh Tarapore,
2023, Frontiers in Robotics and AI, 10
Type: article
Chaoyue Niu, Klaus-Peter Zauner & Danesh Tarapore,
2023, Forests, 14(2)
DOI: 10.3390/f14020268
Type: article
Chaoyue Niu, Danesh Tarapore & Klaus-Peter Zauner,
2020
Type: conference