All of our researchers have graduate and undergraduate research assistants. Our graduate students can pursue an MS in Kinesiology, a PhD in Integrative Physiology, a PhD through Biological Sciences, Human Factors, or Physical Therapy. To learn more about possible research assistant opportunities, visit our employment page or email us at firstname.lastname@example.org.
Research in Kinesiology and Integrative Physiology focuses on these areas:
Students and faculty study how the human central nervous system regulates cardiovascular function, body fluid, and sodium homeostasis. Their work in the Cardiovascular Physiology Laboratory includes research on some of today’s most prevalent conditions, including hypertension, congestive heart failure, obesity and diabetes.
Student and faculty researchers in the Integrative Physiology Laboratory work to better understand human cardiovascular disease and orthostatic hypotension by studying sympathetic neural control of circulation. Researchers use cutting-edge technology, such as finger plethysmography, transcranial Doppler, and microneurography – a specialized technique for recording post-ganglionic neural activity.
Molecular Physiology focuses on the neurogenic mechanisms of hypertension and associated cardiovascular diseases, with emphasis on developing novel targets for disease treatment and management. Research explores the role of the brain’s (pro)renin receptor (PRR) and other members of the renin angiotensin system in the development of hypertension, metabolic syndrome, and heart failure.
The department’s Sleep Research Lab facility combines sleep analysis technologies and biomedical engineering signal processing techniques to explore the effects of sleep on cardiovascular health. Researchers use polysomnography (PSG) and electroencephalography (EEG), as well as finger plethysmography and pulse oximetry to take physiological measurements of human subjects during sleep.
Research in the Exercise Physiology Laboratory focuses on how the human nervous and musculoskeletal systems interact to give rise to coordinated locomotor movements. Through applied science research, clinical research, and education we aim to advance the understanding of human movement in order to maintain overall health, restore function, and improve performance.
Biomechanics focuses on how the laws of physics act on the human body to influence performance and injury risk. Researchers in the Human Biomechanics Laboratory explore the factors that influence successful mobility in both clinical and occupational populations.
In the Aging and Cognition Action Laboratory, research is focused on understanding the nature of changes in cognitive function and motor behavior in healthy aging and dementia. The goal is to understand the broader impacts of cognitive declines on motor behavior through a multidisciplinary approach including methods of cognitive science, movement science, and neuroscience.
Tissue Interfaces Research
Student and faculty researchers in the Tissue Interfaces Research Laboratory concentrate on understanding how the transient signaling molecule nitric oxide (NO) can mediate and control physiological response in both normal and pathological conditions and is quantitatively measuring and delivering NO for applications in wound healing, vascular grafts, and implantable glucose and blood gas sensors.