DrShaun Mason

Shaun Mason’s research program focuses on understanding how nutritional and metabolic interventions regulate human health, integrating approaches that span clinical research, physiology, and molecular biology. His work sits at the interface of nutrition science, exercise metabolism, and biomedical biochemistry, with a central aim of linking mechanistic insight to clinically meaningful outcomes.

His early research established a strong foundation in clinical and translational nutrition, particularly in type 2 diabetes and exercise metabolism, with a focus on redox biology and antioxidant interventions. This work contributed to influential outputs in high-impact journals and informed practitioner-facing resources within the Australian Institute of Sport Supplement Framework, demonstrating both academic and applied impact. His field-weighted citation index [FWCI] = 1.9 (Scopus, with a FWCI = 3.5 as first author).

 
Building on this foundation, Dr Mason’s program has evolved toward the application of advanced multi omics approaches, including proteomics, lipidomics, and metabolomics, to interrogate complex biological responses to diet, exercise, and disease. He has led the development of a mass spectrometry–based multi omics platform within the School of Exercise and Nutrition Sciences, enabling interdisciplinary, data-driven research and supporting collaborations across faculties and external partners.

This integrative program is supported by a growing portfolio of competitive grant funding and contract research, including nationally funded projects and contributions to major NHMRC- and MRFF-aligned initiatives, reflecting both methodological expertise and translational relevance. 
A defining feature of his work is its collaborative and capacity-building impact, including supervision of higher degree students and mentorship in advanced analytical techniques. 

Collectively, his research represents a coherent and evolving program advancing metabolic health research from molecular mechanisms to applied outcomes, with increasing emphasis on multi omics-enabled, interdisciplinary discovery and translation.