Timothy Carroll

Dr Carroll completed his doctorate in Neuroscience at the University of Queensland in 2001. He was awarded an Isaac Walton Killam Memorial Scholarship to pursue postdoctoral studies at the University of Alberta in 2002, before accepting a position as a Lecturer in Human Motor Control at the University of New South Wales in 2003. He joined the School of Human Movement Studies as a Senior Lecturer in July 2007. Dr Carroll's research interests lie in the broad field of integrative human physiology. His work spans the fields of exercise science and integrative neuroscience, with a focus on determining how the central nervous system is reorganised as a consequence of motor learning and exercise. He has a specific interest in the area of strength training. Dr Carroll's research involves the application of electro-physiological techniques such as Transcranial Magnetic Stimulation (TMS), peripheral nerve stimulation, and electromyography (EMG) in experiments involving human subjects. The ultimate purpose of his work is to generate basic knowledge that will lead to the development of exercise protocols that yield maximal benefits for rehabilitation and injury prevention. His work has been funded by the Australian Research Council (ARC) since 2004. Integrative human physiology, Exercise science, Integrative neuroscience, Rehabilitation and injury prevention

[2023] Express visuomotor responses reflect knowledge of both target locations and contextual rules during reaches of different amplitudes. Contemori, Samuele, Loeb, Gerald E., Corneil, Brian D., Wallis, Guy and Carroll, Timothy J. (2023). Express visuomotor responses reflect knowledge of both target locations and contextual rules during reaches of different amplitudes. The Journal of Neuroscience, 43 (42), 7041-7055. doi: 10.1523/jneurosci.2069-22.2023 [2026] Accentuated Eccentric Loading Increases Maximal Countermovement Jump Height Without Changes in Overall Lower Limb Kinetics and Energetics. Su, Eric Yung‐Sheng, Carroll, Timothy J., Farris, Dominic J. and Lichtwark, Glen (2026). Accentuated Eccentric Loading Increases Maximal Countermovement Jump Height Without Changes in Overall Lowe