The role of muscle and tendon mechanics in human muscle damage. This project aims to examine what sort of forceful stretch is required to cause exercise induced muscle damage (EIMD) in humans and how muscles adapt to limit future damage. Specifically, the project aims to examine how the elastic properties of tendons might reduce muscle damage by buffering stretch in muscle fibres. Using cutting-edge ultrasound imaging technology, human muscle strain in different regions of muscle will be examine ....The role of muscle and tendon mechanics in human muscle damage. This project aims to examine what sort of forceful stretch is required to cause exercise induced muscle damage (EIMD) in humans and how muscles adapt to limit future damage. Specifically, the project aims to examine how the elastic properties of tendons might reduce muscle damage by buffering stretch in muscle fibres. Using cutting-edge ultrasound imaging technology, human muscle strain in different regions of muscle will be examined to quantify the temporal relationship between muscle power absorption and EIMD. The importance of muscle and tendon mechanical properties in buffering the muscle from potential damage will be gauged. This could be a critical mechanism for preventing EIMD in exercising humans.Read moreRead less
Calcium signalling by intracellular calcium stores in rabbit, mouse and man: implications for muscle performance and athletic ability. This project addresses essential vital life functions such as respiration and movement and factors that determine whether muscles are better suited to weight lifting, endurance or sprint activities. The outcome will fill an information gap and provide therapeutic targets, significant in medicine, sports and veterinary science.
Optimising lasers for ablation of structurally complex solid non-metals. This project aims to take the latest developments in fibre laser technology to create a new ablation system for precision cutting and reshaping of structurally complex non-metal materials. Fibre lasers provide high quality beams, high average power, and precise pulse timing. Guided by the composition of the material and its response to incident mid-infrared light, the project will create a tailored laser beam to provide ac ....Optimising lasers for ablation of structurally complex solid non-metals. This project aims to take the latest developments in fibre laser technology to create a new ablation system for precision cutting and reshaping of structurally complex non-metal materials. Fibre lasers provide high quality beams, high average power, and precise pulse timing. Guided by the composition of the material and its response to incident mid-infrared light, the project will create a tailored laser beam to provide accurate and high-rate ablation. The expected outcomes include minimal damage to the surrounding area and a level of precision not possible with any mechanical alternative. The project will provide long term benefits to the aerospace and healthcare industries and, be a boost to Australia’s manufacturing sector.Read moreRead less
The role of Roquin in microRNA function and decay. The aim of this study is to understand how microRNAs (newly discovered genetic components that control cell growth and survival) function and are regulated. The expected discoveries will help understand how common cancers including breast cancer and autoimmune diseases emerge, and will help develop cutting edge genetic technologies.
A Tough Resilin Based Hydrogel Platform for Repair and Regeneration. This project seeks to develop novel hydrogels that mimic the properties of the body. In the field of repair and regeneration, our challenge is to make hydrogels that retain the fatigue and resilience properties of the natural body part, but are comprised of nontoxic material. Resilin is a remarkable material exhibiting a broad range of stimuli-responsive behaviour and outstanding elasticity. The project aim is to create a tough ....A Tough Resilin Based Hydrogel Platform for Repair and Regeneration. This project seeks to develop novel hydrogels that mimic the properties of the body. In the field of repair and regeneration, our challenge is to make hydrogels that retain the fatigue and resilience properties of the natural body part, but are comprised of nontoxic material. Resilin is a remarkable material exhibiting a broad range of stimuli-responsive behaviour and outstanding elasticity. The project aim is to create a tough and responsive hydrogel platform from this disordered protein family through greater understanding of structure and mechanical function and incorporating adequate stiffness, strength and biocompatibility. Such tough hydrogels would be applicable to a range of biotechnological applications (eg intervertebral disc repair or artificial skin tissue engineering).Read moreRead less