Seeking to better understand the biology of mesothelioma for earlier diagnosis and more effective, personalised treatments.
Identifying methods for earlier detection, improved surveillance and enhanced effectiveness of treatments for colorectal cancer.
Finding metabolic interventions that can leverage the chromosomal instability of cancer cells and lead to novel therapeutics.
Investigating circular RNAs and how they are formed and regulated in cancer, human diseases and across stem cell differentiation.
Understanding the fundamental structural biology of biomolecular systems in cancer to develop new generation anti-cancer therapeutics.
Shedding light on the mechanisms behind environmental and metabolic control of cell division and cell survival to identify novel targets for the treatment of human cancers.
Understanding the genetic basis of disease, from identification of inherited and somatic mutations through to dysfunctional epigenetic regulation of gene expression.
Exploring the genetic and epigenetic processes that are associated with colorectal cancer, in the expectation of identifying new anti-cancer treatments.
Developing cutting-edge technologies to better recreate conditions of the human brain in vitro. We generate live human brain tissue that we can study extensively in the laboratory settings.
Investigating the immunology underlying human diseases including Type 1 diabetes, transplantation and cancer.
Exploration of haematological malignancies: chronic lymphocytic leukaemia, non-Hodgkin lymphoma and other lymphoproliferative conditions, with a particular interest in metabolomics, proteomics and molecular genomics of these tumours and their response to therapies.
Understanding the metabolic differences between chronic lymphocytic leukemia cells and healthy cells, and if these pathways can be targeted using novel therapies.
Development of novel treatments for cancer and diabetes through understanding the basic mechanism by which insulin-like growth factors and insulin bind and activate their receptors to promote cell growth, survival and metabolic control.
Exploring the role of specific metabolites and enzymes within the arginine metabolic pathways in the pathophysiology of disease states, particularly the enzyme dimethylarginine dimethylaminohydrolase 1 as a therapeutic target in cancer.
Identifying the functional classes of afferents that innervate the bladder, and the channels and receptors underlying their function in health and chronic pain states, to reduce bladder pain and disfunction following immunotherapy for bladder and prostate cancer.
Investigating the complex mediatory role of the human microbiome in acute conditions and chronic disease such as cancer.
Study of the mechanism that controls the initiation and progression of cancer and its response to drug treatment, with a focus on enzymatic control of small molecules within cells, including anticancer drugs and ligands that activate nuclear receptor signalling pathways.
Understanding the mechanisms that drive the survival and proliferation of leukemia and lymphoma cells, particularly interactions with the tumour microenvironment which result in resistance to therapy.
Investigating key biological processes to develop novel therapeutic strategies for multiple myeloma.
Protein engineering to understand and cure disease, such as establishing new methods to ‘remote control’ the signaling pathways and consequently the behaviour of cancer cells, nerve cells and key cells linked to diabetes.
Using computational and experimental systems immunology methods to investigate how vaccines and microbes (pathogenic and commensal) modulate the immune system in a range of different contexts, including cancer.
Characterising the mechanisms by which prostate tumours metastasise and become resistant to therapies, in order to develop new drugs and biomarkers for treatment and management.
Examining the mechanism underlying compensatory renal hypertrophy, the translation and clinical relevance of urine diagnostics in cancer, and the molecular and cellular responses to oxygen.
Bringing together big data and emerging data science breakthroughs, such as machine learning and artificial intelligence, to identify biomarkers and predictors of efficacy, quality-of-life, and adverse outcomes associated with anti-cancer medicines.
Investigation of ocular lymphoma to work towards better treatments.
Applying new therapies for hepatocellular carcinoma, including investigating new models of liver care for remotely living Aboriginal & Torres Strait Islander peoples.
Investigating opportunities to improve clinical assessment and differential diagnosis of lymph and other oedemas, treatment and management of lymphoedemas.
Understanding and predicting outcomes of medicines used to treat cancer, using biomarker data and other patient characteristics, with a particular interest in immunotherapies.
Clinical research in the areas of lung cancer, gastro-intestinal malignancy, molecular targeted therapies, predictive biomarkers, epidemiology and clinical research methodology.
Using existing knowledge together with individual patient and disease characteristics to provide individualised treatment, giving cancer patients a better chance at survival and less adverse outcomes.
The development of strategies to improve the use of non-cytotoxic cancer medicines to enhance both patient survival and quality of life.
Transforming outcomes for individuals with oesophageal adenocarcinoma by developing new methods of prevention and early detection.
Investigating health outcomes in patients with urologic cancers, such as kidney, bladder cancer and testicular cancers, with a particular focus on prostate cancer.
Understanding health behaviours and using this knowledge to design, evaluate and scale up health behaviour change interventions for the primary and secondary prevention of chronic diseases such as cancer.
Measuring and valuing health outcomes and care preferences associated with cancer.
Using economic evaluation to inform decision-making within the health system and improve health outcomes and equity for cancer patients and surviors, such evaluating diagnostic pathways, treatment patterns, and specific care models.
Working to advance the capacity of health and human services organisations and workers to respond to alcohol and drug-related problems, reducing the incidence of chronic diseases such as cancer.
Seeking to improve health outcomes for cancer survivors through examination of burden of disability and unmet needs after cancer diagnosis, and development and implementation of new models of care for cancer patients and survivors.
We acknowledge Flinders Foundation for supporting cancer research at Flinders University.
We welcome all queries about our research, clinical trials, collaboration and postgraduate opportunities through Flinders University.
Please contact a researcher directly by following the link to their individual contact pages above.
Flinders Centre for Innovation in Cancer (FCIC) building
Flinders Medical Centre, Flinders Drive, Bedford Park SA 5042
Free parking is available in car park 12 (next to the Flinders University sports field) on weekends and after 6pm on weekdays.
Public parking is available in the Wilson's multi-storey car park.
Sturt Rd, Bedford Park
South Australia 5042
South Australia | Northern Territory
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