Maximizing male fertility: the role of CRISP proteins. This project aims to investigate the function of cysteine rich secretory protein (CRISP) family members in fertility. It is expected to generate new knowledge on the role CRISP1 and 4 play in sperm competition in vivo, and thus, evolutionary processes; to define the role seminal plasma CRISPs play in fertility; and identify the mechanism underpinning their biological activities. This will be achieved using a range of innovative, state-of-the ....Maximizing male fertility: the role of CRISP proteins. This project aims to investigate the function of cysteine rich secretory protein (CRISP) family members in fertility. It is expected to generate new knowledge on the role CRISP1 and 4 play in sperm competition in vivo, and thus, evolutionary processes; to define the role seminal plasma CRISPs play in fertility; and identify the mechanism underpinning their biological activities. This will be achieved using a range of innovative, state-of-the-art approaches. Expected outcomes and benefits include an enhanced knowledge of the mechanisms underpinning fertility and infertility, enhanced collaboration and research knowhow, and an evidence base for future applied projects aimed enhancing fertility in agricultural species.Read moreRead less
Improving the Sustainability of Australian Livestock Production Systems. The sustainability of livestock production systems must urgently be improved. This Future Fellowship builds upon Dr Zamira Gibb's portfolio of high-impact research to deliver extension and adoption activities which will improve the outcomes of cattle and horse selective breeding programs; allowing the dissemination of low-methane genetics to remote Northern Australian cattle breeding regions, reducing wastage of breeding ho ....Improving the Sustainability of Australian Livestock Production Systems. The sustainability of livestock production systems must urgently be improved. This Future Fellowship builds upon Dr Zamira Gibb's portfolio of high-impact research to deliver extension and adoption activities which will improve the outcomes of cattle and horse selective breeding programs; allowing the dissemination of low-methane genetics to remote Northern Australian cattle breeding regions, reducing wastage of breeding horses and dairy cattle, and improving foal heath and offspring longevity. This project will address the environmental, ethical, and economic concerns which threaten the sustainability of these culturally significant livestock industries which are the cornerstone of everyday life in regional communities. Read moreRead less
Pioneering reproductive biotechnology innovations for equine breeding. This project aims to develop the world's first commercially viable system of in vitro fertilisation (IVF) for horses. The equine industry is seeking reproductive technologies that allow rapid genetic gain to improve the health, welfare and quality of progeny. This project will exploit recent breakthroughs in molecular and cell biology, veterinary practice and biotechnology, by assembling these research findings into practical ....Pioneering reproductive biotechnology innovations for equine breeding. This project aims to develop the world's first commercially viable system of in vitro fertilisation (IVF) for horses. The equine industry is seeking reproductive technologies that allow rapid genetic gain to improve the health, welfare and quality of progeny. This project will exploit recent breakthroughs in molecular and cell biology, veterinary practice and biotechnology, by assembling these research findings into practical systems and products optimised for successful production of foals in vitro. These technologies will boost the productivity and international competitiveness of Australia's equestrian sporting disciplines, and position the Australian biotechnology sector as global leaders in animal reproductive technologies. Read moreRead less