The Collaborative Genomics and Translation Group is part of the Centre for Precision Health, an ECU Strategic Research Centre. The group's research focuses on the application of a precision health and human performance model with the aim to move from a ‘one-sized-fits all’ approach to more effective, personalised solutions to improve health and human performance outcomes. The group consists of a team of multidisciplinary researchers focusing on neurological disorders, including Alzheimer’s and Huntington’s disease, and cancer. Further, it leverages significant collaborations with academics in the Centre for Human Performance, a School of Medical and Health Sciences research centre (e.g. athletic/tactical strength and conditioning). Building upon existing knowledge and expertise across genomics and evidence-based health and human performance strategies the overarching focus is the development of innovative solutions to improve diagnostic, prevention, and monitoring strategies that will keep people healthy and performing better.
Our objective is to maximise quality of life and physical performance through implementing a precision health model for the development of improved diagnostic and tailored intervention strategies.
Our vision is to develop, implement and promote the ethical application of genetic data for the enhancement of health and human performance.
Towards this we are committed to the sustainable growth and development of world class genomics, bioinformatics and data science capabilities to be integrated with phenotypic, clinical and physical performance data.
For more information, contact Professor Simon Laws
Current projects
Health Portfolio - Neurological conditions (including Alzheimer's and Huntington's Disease, and Multiple Sclerosis) and Cancer
- Huntington's Disease Research Group
- Genetic and lifestyle susceptibility and resilience factors affecting rates of change in preclinical Alzheimer's Disease
- Modelling Alzheimer’s disease trajectories as a function of genetic factors and mapping relevant biological pathways.
- Investigating the relationship between sleep, polygenic risk for low relative amplitude and Alzheimer’s disease phenotypes
- Interaction of genetic variation in the neurotrophic pathway and physical activity in relationship to hippocampal volume
- Peripheral DNA methylation patterns, methylation age and Alzheimer's disease risk and related phenotypes
- The impact of the interaction between SIRT1 and lifestyle factors on Alzheimer’s disease risk and related phenotypes
- Systematic Profiling in Neurological Conditions (SPIN) Research Program
- Alzheimer's dementia and progression in international cohorts
- E-DADS: Early Detection of Alzheimer s Disease Subtypes
- BRAIN-MEND: Biological Resource Analysis to Identify new mechanisms and phenotypes in Neurodegenerative Diseases
- Understanding the biology behind the benefits of physical activity in the elderly
- The feasibility and therapeutic effectiveness of computerised cognitive training, compared to usual care, for breast cancer patients undertaking adjuvant chemotherapy
- The feasibility and therapeutic effectiveness of cognitive and exercise training, compared to usual care, for breast cancer patients following chemotherapy
- The feasibility and therapeutic effectiveness of light therapy, compared to usual care, for breast cancer patients during chemotherapy.
- The feasibility and therapeutic utility of a novel remotely supervised multidisciplinary therapy coaching program, compared to lifestyle guidance on the clinical and biological trajectory of Huntington’s disease
- Unveiling the neurobiological factors contributing to social cognitive problems in individuals with Huntington’s disease
- Unveiling the neuropathological changes underpinning dual tasking impairments in individuals with Huntington’s disease
- Exploring neuromuscular function as novel clinical endpoint for Huntington’s disease
- Exploring the utility of hair cortisol as a marker of disease progression in Huntington’s disease
- Exploring the validity of diffusion kurtosis imaging for Huntington’s disease
Human Performance Portfolio
- Acute and chronic interference effect: insights into the role of genetic variation
- Determinants of performance in tennis players
- Determining internal and external loads during simulated match play in tennis players
Postgraduate student project opportunities
For more information visit the Centre for Precision Health graduate opportunities webpage