RESEARCHER PROFILE (Filmed November 2023)
Dr Felicity Han, Research Fellow
Australian Institute for Bioengineering and Nanotechnology
University of Queensland, Australia
Applying nanotechnology to chronic pain management
Dr Felicity Han is a Research Fellow and Leader in Pain Relief Innovation, at the Australian Institute for Bioengineering and Nanotechnology in the University of Queensland. Dr Han’s research interests sit at the interface of drug delivery and the pain field. Her overarching research goal is to improve the quality of day to day life of patients suffering from chronic pain, by applying nanotechnology to the development of novel highly effective pain-killer products for improving chronic pain management.
Dr Han’s team have developed five different techniques to produce painkiller-loaded nanoparticles and nanofibers aimed at improving pain relief for patients where available pain-killers either lack efficacy or produce dose-limiting side-effects. With the use of their nanoparticles, Dr Han’s team aim to turn a small but potent peptide that has been on the market for over a decade into an oral treatment for improving pain management that currently lacks efficacy in patients. T
Dr Han’s research focuses on developing drug-products to solve one of the largest unmet medical needs in the pain field through the use of sustainable materials. Her team are currently working on developing multifunctional sutures including biodegradable pain relief sutures and innovative novel nanoparticles, which deliver innate-immune targeting peptides for the treatment of cancer and cancer-related pain. Their research also investigates the role of C5a and C3a in the pathogenesis of chronic pain including neuropathic pain, cancer-related pain, low back pain, and OA pain.
Dr Han works in collaboration with other leading Australian and international researchers to stay at the forefront of the drug delivery systems field and the pain field. They also provide a preclinical evaluation of novel compounds and formulations.
Dr Han enjoy’s volunteering within the academic community, most notably as Head of the SBMS ECR Committee and Treasurer for The Queensland Chinese Association of Scientists and Engineers (QCASE). Currently, she is serving as a guest editor of Pain Research and Management.
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Food and fasting periods as medicine to prevent disease
Professor Leonie Heilbronn is based at the South Australian Health and Medical Research Institute (SAHMRI), where she leads the Obesity and Metabolism laboratory. Her research is at the interface between basic and clinical science. She is internationally recognised for her work in nutritional modulation in humans and has made major contributions to our current understanding of mechanisms underlying conditions such as insulin resistance, particularly inflammation and lipid metabolism. She has also contributed significantly to current concepts of caloric restriction (CR), intermittent fasting (IF) and time restricted eating (TRE) in humans. She has published more than 110 peer reviewed papers in scientific journals and is an Associate Editor of Obesity, and Obesity Research and Clinical Practice.
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Neonatal respiratory trials in sick & preterm newborn infants
Prof Brett J. Manley leads and collaborates on large national and international randomised clinical trials in neonatology. He previously collaborated on 4 randomised trials of nasal high-flow as non-invasive respiratory support for preterm and term infants, all of which were published in N Engl J Med. Recently he led the PLUSS trial of intratracheal budesonide for extremely preterm infants, that recruited in 21 NICUs across 4 countries, the results of which were published in JAMA. PLUSS was awarded the Australian Clinical Trials Alliance Trial of the Year in 2025. Another passion of his is mentoring and supervising early career researchers to undertake their own clinical trials.
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Ocular disease and early onset myopia
Dr Mountford has successfully established Western Australia’s first and only ocular genetic screening platform using zebrafish and utilises this model to help elucidate some of the complex gene-environment interactions responsible for the development of myopia.
