UK College of Education Kinesiology and Health Promotion
Ph.D. in Exercise Science

Faculty FAQ's

 

Ph.D. Curriculum

      (Exercise Physiology - M.S. Curriculum)
      (Biomechanics - M.S. Curriculum)

The Exercise Science Core includes 20 hours, as shown below, and provides the student with a broad understanding of the various disciplines involved in this field. Each student is also required to take a minimum of 7 hours in research/statistic coursework and 6 hours of computer programming or demonstate proficiency in programming. Beyond this minimum of 33 hours, the structure and content of the doctoral program are set by an advisor and committee in consultant with each student. The number of formal courses within each area of specialization may vary. It is expected that the depth of knowledge in each area of study comes from independent study and research experiences, in addition to the dissertation, which are under the direction of the faculty. Each student will demonstrate their depth of knowledge by their qualifying exams. Typically, it will take from 3-5 years for the student to complete the degree requirements including the dissertation.

Each student will be expected to develop an in-depth understanding in one of the offered disciplines of biomechanics, exercise physiology or motor control. The coursework taken in this area will be developed in conjunction with faculty members with expertise in that area and will take into account the student's background. Coursework will include appropriate advanced professional disciplinary topics and electives in related areas.

In order to assure a thorough understanding of the instructional and research issues in exercise science, each student's research and instructional competencies will be assessed. Students who lack prior research experience will be required to complete a research project under the supervision of a faculty member, which will serve as preparation for the dissertation. In addition, in order to prepare students for their future roles as faculty members, a supervised teaching experience will be provided. This experience may be fulfilled by formal seminars or in other supervised teaching arranged by the supervisor.

The Ph.D. program in exercise science uses a mentor-based admission process. What this means is that students are admitted into the program under the direct supervision of a specific faculty member. Other programs may admit students without a faculty mentor, and then allow the students to decide on their primary advisor over a period of time. Our program makes this link between the student and the faculty mentor from the beginning. This link can occur during the application process, or the student could identify the faculty member with whom they wish to work prior to applying to the program. The ultimate decision then lies with each faculty member within a given specialization (i.e., biomechanics or exercise physiology). Therefore, even though a student might qualify for the program based on the admission criteria, they might be denied admission because they do not have a faculty member willing to accept them as a student. It is our belief that this system provides the greatest benefit to the development of both the graduate student and faculty advisor.

With this system, it is advantageous for the student to initiate conversations with a potential faculty advisor well before applying to the program. We encourage you to contact potential advisors and initiate one-on-one conversations to discuss research interests and potential dissertation areas. If you are attending national conferences, you might be able to schedule a meeting with them there. Just click on the “Faculty/Staff” button to your left to find faculty email addresses and phone numbers.

*Core Courses (Required 20 credits)
Course Title/Credits/Faculty
KHP 610 Muscles in Motor Control (3)
KHP 615 Biomechanics of Fundamental Movements (3) Umberger
KHP 620 Advanced Exercise Physiology (3) Clasey/Yates
KHP 640 Laboratory Methods (3) Yates
KHP 782 Independent Research (3)
PGY 615 or equivalent Teaching Credits (1) Richardson
Seminar (4) (1 credit/sem for 4 sem) Dept. Faculty

Related Courses:

Within Department:
a. Exercise Physiology:
KHP 600 Exercise Stress Testing and Prescription (3) Clasey
KHP 621 Exercise and Coronary Heart Disease (3) Clasey
KHP 630 Exercise in Health and Disease (3) Clasey
KHP 609 Foundations of Health Promotion (3) Dept. Faculty
KHP 609 Health Assessments (3) Dept. Faculty

b. Motor Control
KHP 650 Theories of Motor Control (3)
KHP 560 Motor Development in Infants and Children (3) Hall

c. Biomechanics
KHP 616 Sport Biomechanics (3) Shapiro
KHP 617 Gait Analysis (3)
KHP 618 Ergonomics and Work Hardening (3) Yates
KHP 715 Three Dimensional Analysis of Human Movement (3)

Other Departments:
PGY 412G Principles of Human Physiology (4)
ANA 811 Human Anatomy for Allied Health Professions (5)
ANA 802 Neuroanatomy for PT students (2)
PT 831 Clinical Neurophysiology (2)
PT 652 Pathomechanics (2)
PT 676 Electrophysiological Testing and Therapeutics (2)
BME 501 Foundations of Biomedical Engineering (3)
BME 530 Biomedical Instrumentation (3)
BME 605 Biomedical Signal Processing I (3)
BME 635 Magnetic Resonance Instrumentation and Measurement (3)
BME 670 Biomechanics I (3)
BME 672 Biomechanics II (3)
BME 685 Biofluid Mechanics (3)
CNU 605 Wellness and Sports Nutrition (3)
GRN 612 Biology of Aging (3)
GRN 643 Biomedical Aspects of Aging (3)
PM 601 Occupational and Environmental Health (3)
PGY 608 Advanced Renal Physiology (3)
PGY 609 Advanced Respiratory Physiology (3)
PGY 502 Principles of Systems/Cell Molec Physiology (5)

Research/Statistics (7 credits)
STA 671 Regression and Correlation
STA 672 Design and Analysis of Experiments
STA 677 Applied Multivariate Methods
STA 679 Design and Analysis of Experiments II

Computer Language Requirement (6 cr) or student must demonstrate proficiency in a computer language

Tentative Course Rotations (PDF)

GRADUATE FACULTY IN EXERCISE SCIENCE

Mark Abel, Ph.D. University of Utah. Assistant Professor. Exercise Physiology: Physical activity measurement.

Tim A. Butterfield, Ph.D., ATC. University of Calgary. Assistant Professor. Biomechanics/Sports Medicine: Plasticity of skeletal muscle.

Jody Clasey, Ph.D. University of Illinois. Associate Professor. Exercise Physiology: Metabolism, endocrine and body composition alterations in response to physical training.

John Hall, Ph.D. University of Oregon. Associate Professor. Special Population: Growth and motor development in children and special populations. Measurement, research design and statistics.

Darren Johnson, M.D. UCLA. Professor. Orthopaedics: Knee and shoulder biomechanics.

Carl Mattacola, Ph.D. University of Virginia. Associate Professor. Biomechanics/Sports Medicine: Neuromuscular control of postural stability following injury. Effectiveness of lower extremity interventions on postural stability.

Jennifer Medina McKeon, Ph.D., ATC. The Pennsylvania State University. Assistant Professor. Biomechanics/Sports Medicine: Structural factors associated with performance and injury in the knee.

Patrick McKeon, Ph.D., ATC., University of Virginia. Assistant Professor. Biomechanics/Sports Medicine: Sensorimotor alternatives associated with lower extremity joint injury.

David R. Mullineaux, Ph.D. Sheffield Hallum University. Assistant Professor. Biomechanics: Variability as a biomechanical measure.

Art Nitz, PhD, PT. University of Kentucky. Professor. Sports Medicine: Muscle-nerve pathologies related to orthopedic, sports injury; clinical efficacy, outcome studies; orofacial pain; needle EMG procedures.

Rob Shapiro, Ph.D. University of Illinois. Professor. Biomechanics/Sports Medicine: Whole body biomechanics, 3-D analysis, injury mechanisms, sport biomechanics.

T. Brock Symons, Ph.D. University of Western Ontario. Assistant Professor. Exercise Physiology/Gerontology: Mechanisms of muscle synthesis and nutritional supplementation to counteract age-related loss of skeletal muscle.

Chester Tylkowski, M.D. University of Illinois. Professor. Orthopaedics: Pathological gait in children.

Tim Uhl, Ph.D. University of Virginia. Associate Professor. Biomechanics/Sports Medicine: EMG related to neuromuscular control and activation patterns of the upper extremity. Orthopedic injuries and return to participation.

J.W. Yates, Ph.D. The Pennsylvania State University. Associate Professor. Exercise Physiology: Muscular training and fatigue mechanisms. Ergogenic aids. Work physiology and ergonomics.

 

SUPPORTING FACULTY

Geza Bruckner, Ph.D. University of Kentucky. Professor. Primary Appt. - Clinical Nutrition. Clinical Nutrition: Cardiovascular and microcirculatory response to alteration in type and amount of dietary fatty acids. Dietary alterations and the stress response.

Charlie Knapp, Ph.D. University of Notre Dame. Professor Emeritus. Center for Biomedical Engineering. Biomedical Engineering: Hemodynamics and cardiovascular regulation associated with deconditioning and hypotensive challenges.

Terry Malone, Ed.D. P.T. Duke University. Professor. Primary Appt. - Physical Therapy. Sports Medicine: Orthopaedic rehabilitation outcomes, Soft Tissue Injury & Repair, Strength Assessment and its correlation to function

Dave Pienkowski, Ph.D. University of Pennsylvania. Associate Professor. Primary Appt. - Biomedical Engineering. Biomechanics and Biomaterials: motion analysis of multiple bone systems, polymers in orthopaedic biomaterials.
 
 

 

Department of Kinesiology and Health Promotion

 

Updated on March 27, 2008 9:31 by the Webmaster - Content by Dr. Melody Noland
Director of Graduate Study: Dr. Richard Riggs

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