If you’re fascinated by health and human physiology and have a passion for fitness, bring your interests together through study with a doctorate of Integrative Physiology.
We take a system-level approach to understand the role of physiology in human health. Our work is conducted across the entire spectrum—fundamental basics at the molecular level, animal- and human-based research, and population studies—to translate research into tangible health outcomes.
What you’ll work on
We have many focus areas and laboratories where you can work with top faculty to do your research. For a more in-depth look at the areas we offer, our research focus page will show you more.
Cardiovascular Physiology
Study how the human central nervous system regulates cardiovascular function, body fluid, and sodium homeostasis. Research in the Cardiovascular Physiology Laboratory focuses on hypertension, congestive heart failure, obesity, and diabetes.
Integrative Physiology Research
Deepen your understanding of human cardiovascular disease and orthostatic hypotension by studying sympathetic neural control of circulation. Researchers combine cutting edge technology with innovative techniques.
Molecular Physiology
Focus on the neurogenic mechanisms of hypertension and associated cardiovascular diseases, with emphasis on developing novel targets for disease treatment and management.
Exercise Physiology
Study how the human nervous and musculoskeletal systems interact to give rise to coordinated locomotor movements. Combine applied science and clinical research for a broader understanding.
Human Biomechanics
Understand how the laws of physics act on the human body to influence performance and injury risk with both clinical and occupational applications.
Aging and Cognition Action
Explore the nature of changes in cognitive function and motor behavior in both healthy aging and dementia. A multidisciplinary approach to research uses methods found in cognitive science, movement science, and neuroscience.
Tissue Interfaces Research
Concentrate on understanding how the transient signaling molecule nitric oxide (NO) can mediate and control physiological response in both normal and pathological conditions.
Required Courses
Please select 10 credits of the following:
At least one of the following:
Remaining credits are dissertation research and/or electives. Talk with your advisor each semester about specific research and elective credits. For more-detailed information, see Degree Requirements and our Graduate Student Handbook.
