HCI, Visualisation and User Experience

Leveraging next-generation technologies to enhance end-user experience and drive intelligent digital solutions.

Advances in information technology contribute to the ever-expanding boundaries of our digital future. Our team of experts is dedicated to technology-driven research in key areas such as human-computer interaction (HCI), extended reality (XR), artificial intelligence (AI), data visualisation, wearable technology, image processing, computer vision and spatial crowdsourcing.

We conduct both fundamental and applied research, integrating theoretical insights with hands-on experimentation to explore how HCI can elevate user experiences. Our research covers a wide range of topics, including virtual and augmented reality, human factors, user experience design, data visualisation, and immersive analytics.

We also push the frontiers of HCI to create new paradigms for users to interact naturally and intelligently with digital systems in both professional and everyday contexts. By combining AI, XR, wearable technologies, spatial crowdsourcing and computer vision, we develop intuitive and responsive user interfaces that bridge the gap between humans and machines.

Our collaborative projects span diverse domains, for example:
examining user behaviour across platforms
enhancing accessibility in user-vehicle interactions
exploring navigation and engagement in large-scale virtual environments
supporting clinicians with AI-enhanced image analysis for greater diagnostic precision.

Projects

Virtual reality (VR) is often seen as a transformative tool for education and training, offering immersive environments where learners can safely and effectively build knowledge, skills, and abilities. However, unlocking its full potential requires a deeper understanding of how individuals perceive, behave, and learn within VR environments.

Our team has developed a VR soft skills training program that allows users to engage in challenging social interactions within a controlled, immersive setting. By studying how learners interact and grow within this program, we aim to uncover key design principles that can inform the broader application of VR in training and education.

Partner - Liminal VR

Biomedical imaging, clinical records, and data from body-worn sensors generate complex, heterogeneous spatial-temporal information throughout daily life, treatment, and rehabilitation processes. Managing and interpreting this diverse data presents both challenges and opportunities for advancing healthcare.

Our team develops cutting-edge AI solutions that integrate multi-modal health data to enable smarter healthcare applications, such as early diagnosis, prognosis, and preventative care. This project supports more precise data analysis, deeper knowledge discovery, and personalised diagnosis and treatment planning, ultimately enhancing patient outcomes and advancing the future of healthcare.

Partners Taipei Medical University; Taipei Municipal Wanfang Hospital; Shandong Cancer Hospital; Rudder Technology PTY LTD

Autonomous vehicle technology holds significant promise for improving mobility and independence for people with disabilities. However, the specific barriers and opportunities this technology presents to these users remain insufficiently understood.

Our team investigates the unique needs and requirements of people with disabilities in the context of emerging autonomous vehicle technologies. We aim to inform an interaction design framework that spans the entire user journey, from trip planning to in-vehicle interaction and arrival.  In addition, we develop tailored interaction schemes for in-vehicle user interfaces to ensure that autonomous vehicles are accessible, inclusive, and supportive of diverse user abilities.

Partners HMI Technologies; iMove Australia

Motorcycles are frequently involved in crashes due to improper riding behaviours. As a forward step in mobility innovation, Cooperative Intelligent Transport Systems (C-ITS) offer the potential to reduce such incidents by enabling real-time road behaviour alerts through wireless communication.

This project aims to improve motorcycle rider safety by integrating riders with connected infrastructure, cloud services, and vehicle data to deliver timely warnings about potential hazards. Our team investigates how C-ITS-based warning systems can most effectively deliver crash alerts to riders, with the goal of maximizing safety and enabling faster, more informed responses in critical situations.

Partners iMove Australia

Our researchers

Professor Aniruddha Desai - Research Professor and Director, Centre for Technology Infusion

Mr Erik van Vulpen - Deputy Director, Centre for Technology Infusion

Professor Phoebe Chen - Professor in Computer Science and Information Technology

Dr Huawei Tu - Lecturer in Computer Science and Information Technology

Dr Richard Skarbez - Lecturer in Computer Science and Information Technology

Dr Peng Cheng -  Senior Lecturer in Computer Science and Information Technology

Dr Lydia Cui - Lecturer in Computer Science and Information Technology

Dr Alex Tomy - Lecturer in Computer Science and Information Technology

Dr Kiki Adhinugraha - Lecturer in Computer Science and Information Technology

Contact us

Our team is always exploring new avenues to use advanced technologies and help many industries implement efficient solutions.

If you would like to work with us, please contact Dr Huawei Tu via email for more information.