Nathan Tivendale

Nathan Tivendale is an Honorary Research Fellow at the School of Molecular Sciences, The University of Western Australia, and affiliated with the ARC Centre for Plant Energy Biology. His research focuses on plant biochemistry with emphasis on energy use and efficiency in plants, particularly protein synthesis and degradation mechanisms.

His educational background includes a PhD in Plant Biochemistry (2012), Bachelor of Biotechnology with Honours (2009), and Bachelor of Biotechnology (2007), all from the University of Tasmania. His thesis work investigated auxin biosynthesis in garden pea.

Dr. Tivendale's research spans plant hormone biology, secondary metabolism, and natural products for drug discovery. His work integrates plant physiology, molecular biology, bioanalytical chemistry, and organic chemistry to understand fundamental plant processes. He has made significant contributions to understanding auxin pathways and their connection to cellular energy metabolism, with research cited over 500 times according to Scopus metrics.

His current projects examine protein turnover and energy investment in cereal crops, and linking protein age with function. He served as Chief Investigator on the 2023 project 'Evolving enzymes for plants to make them last longer and improve plant performance' at The University of Western Australia.

His publication record includes 17 research outputs with notable articles in Food Chemistry, The New Phytologist, The Plant Journal, and Plant & Cell Physiology. His work shows consistent focus on plant energy pathways, with recent publications exploring auxin-energy connections, protein turnover mechanisms, and nutritional enhancement of crops.

Dr. Tivendale's scientific contributions align with UN Sustainable Development Goals related to food security and sustainable agriculture. His teaching philosophy emphasizes discovery-based learning through multiple platforms and industry connections.

• Plant hormone biology
• Plant secondary metabolism
• Natural Products and drug discovery
• Protein synthesis and degradation
• Energy use in plants
• Auxin biosynthesis pathways