METABOLIC PHENOTYPING, LIPIDOMICS & BIOINFORMATICS IN DEMENTIA
With
Dr Luke Whiley
Curtin Medical Research Institute,
Western Australia
RESEARCHER PROFILE
Filmed in Perth, Western Australia | February 2026
Dr Luke Whiley is a dementia researcher whose work focuses on understanding how the body’s metabolism, particularly the biology of fats known as lipids, influences our health throughout ageing.
His research explores how the body responds to illness, lifestyle, and environmental stress at a chemical level, and how these responses shape longterm disease risk. Using advanced blood-based measurement technologies, Dr Whiley studies thousands of small molecules at once to build a snapshot of a person’s metabolic health. By combining these measurements with data science approaches, his work identifies biological pathways that become disrupted in disease, providing insight into why some people are more vulnerable to conditions such as dementia.
A major focus of Dr Whiley’s research is Alzheimer’s disease, where he investigates how genetic risk, particularly variations in genes involved in lipid transport, may affect metabolism across the body and lead to disease. This work highlights the importance of lipids in brain health, helping shift dementia research beyond proteins alone to include broader metabolic processes.
He also studies related questions in Parkinson’s disease, traumatic brain injury, and COVID19, where metabolic disruption plays a key role in recovery and longterm outcomes. Alongside discovery research, Dr Whiley develops methods that allow detailed metabolic testing using much smaller samples, making future screening and monitoring more accessible.
His overarching goal is to improve understanding, earlier detection, and prevention of neurodegenerative disease, while keeping people with lived experience at the centre of dementia research.
Source: Supplied
https://orcid.org/0000-0002-9088-4799
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Oral administration of insulin for Type 1 Diabetes
Huiwen Pang is a 3rd year PhD candidate in the Australian Institute for Bioengineering and Nanotechnology, University of Queensland, focusing on biomedical health research. Prior to commencing his PhD, Huiwen studied animal genetics in his Masters degree at Huazhong Agriculture University in China.
People with diabetes, especially Type 1 diabetes, largely rely on the insulin injections or insulin pumps to control their high blood glucose levels, which is painful and has a high risk of infections.
Huiwen Pang is conducting research on nano-based drug formulations for Type 1 diabetes treatment, with a focus on using nanomaterials to load insulin for oral administration and employing anti-apoptotic and anti-inflammatory approaches to mitigate damage to beta cells.
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Health and economic burden of interstitial lung diseases
Dr Cox’s main research interests focus on respiratory diseases and primarily on the economic burden and economic evaluation of interventions and treatments for their management. She earned her PhD from the University of Tasmania where her doctoral research examined the health and economic burden of idiopathic pulmonary fibrosis (IPF) in Australia, one component of the NHMRC Centre for Research Excellence for Pulmonary Fibrosis, a national project implemented alongside the Australian IPF Registry and the Lung Foundation Australia. This research provided the first epidemiological profile and first costing estimates of the economic burden of the disease in Australia, providing essential evidence for health service reimbursement policies.
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Genetic disease research imitating function and architecture of organs
Professor Wolvetang was among the first to bring the first human embryonic stem cells to Queensland, with his Wolvetang Group at the AIBN now renowned for its work with organoids: growing them, studying them, and using them to try and understand diseases and human development.
Using cutting edge technology, Professor Wolvetang designs and grows organoids both for their own work and for labs across the country, coaxing pluripotent stem cells or tissue samples into 3D structures that mimic the function and architecture of real brains, livers, kidneys, spinal cords, and intestines.
