Research Focus
Pillar 1: Gripping and Sensing
WP 1: Hybrid soft-grippers with variable stiffness
Asst. Prof. Lum Guo Zhan
- To create a bio-inspired robotic gripper
WP 2: Printed, flexible tactile sensors for robotic grippers
A/P Leong Wei Lin
- Developing soft sensors that endow grippers with pressure-temperature perception capability
Pillar 2: Robotic Arm Manipulation
WP 3: Haptic-based learning for in-hand and dual-arm manipulators
A/P Domenico Campolo
- Development of a virtual-reality based semi-autonomous framework to train robots to perform both in-hand and dual-arm complex manipulation
- Human-in-the-loop strategy allows the team to develop techniques that include bio-inspired learning models for motion planning
Pillar 3: Situation awareness, path planning and collision avoidance
WP 4: Cognitive intelligent robotic sensing with AI edge data fusion
A/P Zheng Yuanjin
- 3D chip-integrated sub-THz radar, optical Lidar, and light-field camera sensor
- Development of a sub-THz transceiver chip that attains scalable range resolution from cm to mm and AI edge chip for data fusion of multi-sensors for 3D SLAM in real-time
WP 5: Multi-level situation awareness for safe and efficient multi-agent collaboration in smart manufacturing
Prof. Xie Lihua
- New framework considers the mutual intention perception of humans and robots and 3D localization
- Dynamics are now embraced instead of rejected as a disturbance
WP 6: Resource- and context-aware signal processing and machine learning for real-time decision-making
A/P Andy Khong
- New metacognitive framework with reduced latency to facilitate fast decision-making,
- Allows AMRs to re-route, accelerate, decelerate, or detour, instead of hard stopping