POSTED: 25 Mar, 2024
We extend our congratulations to James Dwyer, our PhD researcher, for successfully completing his confirmation seminar on March 20th.
James’s thesis, titled “How Can We Design for Human-Robot Collaboration: the Need for a Human-Robot Collaboration Prototyping Toolkit,” is under the supervision of Jared Donovan, Markus Rittenbruch, Stine Johansen and Rafael Gomez FDIA from QUT (Queensland University of Technology) and the review panel included Marianella Chamorro-Koc and Claire Brophy.
His project is dedicated to developing a human robot collaboration Prototyping Toolkit that integrates both physical and simulated robotic systems. This initiative aims to streamline the exploration, development, and testing of novel processes and work routines. Through a collaboration with industry partner Cook Medical, the research team will explore various prototyping techniques and utilise advanced technologies such as motion tracking, mixed-reality interfaces, and lightweight interactive components to safely explore new interaction concepts.
This innovative approach promises to equip designers, engineers, and end-users with the essential resources for enhancing future human-robot collaboration within the manufacturing landscape.
For more details about James’s project, please see: Project 2.2: Human Robotic Interaction prototyping toolkit » Australian Cobotics Centre | ARC funded ITTC for Collaborative Robotics in Advanced Manufacturing

Recent News
Human-Robot Collaboration Is More Than a Human and a Robot
Written by PhD Researcher, Jasper Vermeulen, Designing Socio-Technical Robotic Systems program. When people think about Human-Robot Collaboration, ...
ARTICLE: The Humanoid Moment
Written by Dr. Katia Bourahmoune, Acting Co-Lead, Quality Assurance & Compliance program. In April 2026, a humanoid robot crossed the finish ...
A Cost-Effective Path to Better Finishing: Robots That Learn Through Sound
Industrial automation has traditionally been built around a fundamental limitation: robots cannot “feel”. Sensing physical interaction with a work ...