The Research Group at the Department of Medical Imaging and Radiation Sciences was established in 2005 based on the awareness that research and evidence based medicine are increasingly becoming central components of modern medical imaging and radiation therapy practices. This trend comprises diagnostic radiology, radiation therapy and radiation oncology. The department is actively engaged in clinical, professional and health educational research aimed at fostering a research culture among trainee and practicing radiographers, sonographers, radiation therapists and other professionals affiliated with medical imaging and radiation sciences. Our staff collaborate with a large number of clinical and academic sites across Australia, are involved in a wide range of research studies and supervise a number of higher degree research students (Master of Philosophy and PhD).

The Department currently has a multidisciplinary research program that addresses questions relating to the practice and science of medical imaging and radiation sciences.

Research Areas

Some projects that we are currently working on or have recently completed relate to:


  • Anatomic and functional cancer imaging at diagnosis and during therapy
  • The use of ultrasound and MRI in musculo-skeletal imaging
  • Neonatal cranial ultrasound in the newborn
  • Radiation therapy
  • Comparing muscle and tendon injuries between MRI and ultrasound for the evaluation of rehabilitation duration
  • Ultrasound elastography of tendons and soft tissues' and 'infra-red thermal imaging

Contact: A/Prof Michal Schneider (

Education and Professional Practice

  • Fitness to practice and role extension
  • Facilitating allied health student's accurate assessment of clients' emotional content by incorporating understanding of context, culture and lived experience
  • Occupational burnout in sonographers, radiographers, radiologists and nuclear medicine technologists in Australia

Contact: Prof. Marilyn Baird ( or Dr Caroline Wright (

Imaging Physics

System modelling and image processing aspects in the fields of X-ray physics and ultrasound.

  • Monte-Carlo modelling of dose distributions in high count rate ionisation chambers
  • Investigation into X-ray beam propagation using Gaussian beams
  • Understanding the bio heat equation and how it accounts for heat flow under diagnostic and ultrasound conditions
  • New techniques for SPECT emission imaging using novel collimator design

Contact: Dr Matthew Dimmock (


The use of imaging techniques such as functional magnetic resonance imaging (fMRI), perfusion-fMRI and positron emission tomography (PET) to examine regional brain responses.

  • Investigating brain responses associated with interoception (sensations arising from inside the body), regulatory behaviours and autonomic responses

Contact: A/Prof Michael Farrell (