Gregorevic laboratory: Muscle Research and Therapeutics
Associate Professor Paul Gregorevic
+61 3 9035 7700
View Associate Professor Paul Gregorevic's latest PubMed publications listing here
Skeletal muscle is important for sustained health throughout a persons lifespan, yet we easily take for granted its role in our health and lifestyle. It accounts for almost half of our body mass, and as such even a moderate decline in muscle strength caused by aging, extended bed rest, injury or a sedentary lifestyle can dramatically increase the incidence and severity of many serious medical conditions.
The goal of the Muscle Research and Therapeutics Laboratory is to understand the cellular mechanisms that regulate muscle growth, muscle wasting, and muscle metabolism so that we can develop new methods aimed at preventing or treating the symptoms of muscle-related conditions.
Our research places a particular emphasis on employing recombinant viral vectors, designed and manufactured “in-house”, as a means to selectively alter gene expression in mouse models of human disease states. We also perform a range of analyses using a host of established and cutting-edge techniques spanning the disciplines of biological/biomedical science. By employing the advantages of gene delivery technologies in this way, we can interrogate the cellular mechanisms controlling muscle adaptation in vivo with a combination of speed, precision, and efficacy not attained using other approaches.
Associate Professor Paul Gregorevic, Head of Laboratory
Dr Kevin Watt, Research Fellow
Dr Craig Goodman, Research Fellow
Dr Hongwei Qian, Research Fellow
Dr Rachel Thomson, Senior Research Assistant
Alaina Lee, Senior Research Assistant
Adam Hagg, Research Fellow
Alastair Saunders, PhD
Chris Karagiannis, PhD
Scarlett Parker, Masters
Wayne Du, Masters
Matteo Pitteri, Masters
Raushaan Seychell, Masters
Tom Chadwick, Masters
2019-2022 FSHD Global Research Foundation Research Grant. Testing novel therapeutic strategies to combat the metabolic disturbances underlying the muscle pathology of FSHD
2019-2021 NHMRC Project Grant. Developing a novel class of therapeutics for muscle wasting and frailty
2019-2022 ARC Development Grant. Age-related mechanisms of amino acid signalling in skeletal muscle
2018-2021 NHMRC Project Grant. Rescuing the dystrophin-glycoprotein complex to protect muscles from wasting conditions
2018-2021 NHMRC Research Fellowship. Using gene delivery technologies to define novel mechanisms of skeletal muscle adaptation, and develop muscle directed interventions for frailty and serious illness
2018-2021 Cancer Council Victoria Project Grant. Towards precision medicine for Cancer Cachexia
2017-2021 NHMRC Project Grant. Investigating Follistatin-based interventions for long-term protection against frailty associated with chronic illness and aging
Research projects placements are offered for Honours, Master of Biomedical Science, and PhD students. Please refer to Research Projects on the top right side of this page and contact the Research Group Leader to discuss your options.
The research team has over 15 years experience in the design and application of recombinant viral vectors as tools for gene delivery. Vector manufacture is undertaken in-house using purpose configured viral vector facilities. These reagents have helped researchers to study gene manipulation in musculature at the whole muscle/animal scale with precision, speed and affordability not matched by other methods. Vectors made in-house have also been adapted for study in other tissues including cardiac and smooth muscle, the vasculature, adipose tissue, and hepatic, pancreatic, renal, and reproductive systems.
Researchers are encouraged to contact the team if seeking assistance to develop customised recombinant viral vectors for their own research.
- Unravelling the mysteries of E3 ubiquitin ligase in regulating skeletal muscle size and function
- Exploring new roles for the TGFβ signalling network as a key regulator of skeletal muscle in health and disease
- Defining new roles for the Hippo signalling pathway in skeletal muscle
- Developing innovative animal and cell culture models to study and treat muscular dystrophies
- Learning from skeletal muscles to develop new treatments for cancer
Faculty Research Themes
School Research Themes
For further information about this research, please contact Head of Laboratory Associate Professor Paul Gregorevic
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