Philip Gallagher is an associate professor and program director of Exercise Science, in the Department of Health, Sport, and Exercise Sciences (HSES). He is also the director of the Applied Physiology Laboratory. Dr. Gallagher joined the faculty in 2004 after completing doctoral studies in Human Bioenergetics and post-doctoral studies in Muscle Physiology at Ball State University. Dr. Gallagher’s research interests include the prevention of muscle atrophy and intracellular signaling associated with skeletal muscle metabolism. He teaches both graduate and undergraduate courses in Exercise Physiology, Metabolism and Muscle Physiology and serves on the Institutional Review Board for Human Subjects at KU.
Dr. Gallagher specializes in muscle physiology, exercise physiology, and metabolism.
Postdoctoral , Muscle Physiology, Ball State University
Doctor of Philosophy, Human Bioenergetics, Ball State University
Master of Science, Exercise Science, Northern Michigan University
Bachelor of Science, Human Biology, University of Wisconsin-Green Bay
Over the past 16 years (including my post-doctorate and Ph.D. work), I have had the opportunity to teach undergraduate and graduate students in the university setting. At the University of Kansas I have taught multiple lecture-based undergraduate and graduate courses, including Exercise Physiology (HSES 672, undergraduate class sizes up to 100), Exercise Biochemistry (HSES 674, undergraduate class size up to 80), Skeletal Muscle Physiology (HSES 825, graduate class size up to 20), and Exercise and the Cardiovascular System (HSES 872, graduate class size up to 20). I possess a wide knowledge of current issues that help students understand the relevant topics about Human Physiology. This is highlight by the fact that during my time at the University of Kansas I have taught twelve different classes.
Generally, my approach to teaching the undergraduate and graduate classes are quite different. For the undergraduates, I found that I have to work a little harder to get students engaged in the classroom. In the graduate classes I can focus more on the subject matter. Regardless of the class, the subject matter must be interesting to all students in the class, not just to those students sitting in the first two rows. Thus, I employ several techniques to engage all students in a two-way exchange of information. I try to formulate questions that foster the simultaneous development of critical thinking and invite group discussion. I feel that this is crucial, since group discussion allows students to deal with the class material and information from different perspectives, allowing for a fuller understanding of the topic. A tool that I have been using more often is dividing the class into smaller groups. I have found that collaborative learning allows students to work together to solve a problem or answer a question and allows students to communicate in a less intimidating environment. I also emphasize to my students that it is ok to give a wrong answer. In fact, I would much prefer a wrong answer from a student rather than no answer at all. Laboratory classes are where I not only anticipate, but require students to become independent critical thinkers. Instead of having students follow a written set of procedures or methods, I give students a series of questions and they are required to design and execute experiments to answer these questions. Depending upon the project, the class as a whole will collaborate on the design and data collection or I will divide the class in smaller groups. In upper-level laboratory classes, students are required to develop their own experiment as a class, write an application to the human subjects committee and perform the experiment. Obviously, I supervised and intervened when necessary, but for the most part, these students are independent. One problem with this approach is that some students were not as involved or perhaps felt a little intimidated. Thus, I still feel like there is some fine-tuning needed to improve learning in these types of classes.
I have taken time in several of my classes to determine what is the most important information and what do the students need to know if they are going to be ‘experts’ in the field. This does not mean that I am going to be known as an easy teacher. I take pride in comments like “class was really challenging, but interesting” and for an undergraduate class, “class seemed more like a graduate level course”. I have been trying to become a better teacher throughout my career and I have attended the Best Practices Institute at the Center for Teaching Excellence at the University of Kansas. This two-day seminar discussed teaching in higher education and identified ways to incorporate the best practices into our teaching. I believe my teaching skills are have improved as evidence by the fact that I received the Joyce Elaine Pauls-Morgan Teaching Award for the Department of Health, Sports and Exercise Science at the University of Kansas in 2009. There will always be aspects of my teaching that I can improve upon and my interest in becoming a better teacher will not stop until I retire.
Throughout my career I have been passionate about and have considerable experience in skeletal muscle physiology. My innovative personality has facilitated the design and execution of numerous research studies that are highlighted in my vitae. Although my Ph.D. is not in Biochemistry, the majority of research utilizes biochemical techniques including qtPCR, western immunblotting, ELISA, and immunohistochemistry. I am also exploring the utilization of next-generation gene expression techniques to examine both genetic and epigenetic factors associated with health and disease. Furthermore, I have experience with the testing of muscle function from the whole muscle to single fiber level. I also have considerable practice managing and participating in various working groups at the department, school and university level. In addition to my role as the Director of the Applied Physiology Laboratory, I have served as the department’s Director of the Exercise Science programs for the past ten years. There are five faculty members in our Exercise Science group that I lead in determining program planning, designing student assessments, procedural issues, coordinating curricular changes, as well as spearhead efforts regarding student recruitment and retention. At the professional level I am active in the American College of Sports Medicine (ACSM), and am currently applying for Fellow status. I have served as President and as the Kansas State Representative for the Central States Chapter of ACSM and I am a member of the American Physiological Society and the National Strength and Conditioning Association, serving as an active contributor to their meetings.
I have performed both basic and clinical based investigations over the past fifteen years with emphasis in aging and muscle physiology. Currently, there are two primary lines of research that I am pursuing. The first line of my research involves the role of physiological and metabolic mechanisms related to skeletal muscle hypertrophy and atrophy, including the following: 1) the activation of signaling proteins in skeletal muscle in response to different forms of stress (e.g. metabolic, physical, etc.), and 2) examining the effects of supplements and resistance exercise on whole muscle and intracellular signaling proteins to attenuate and perhaps reverse muscle atrophy. The second line of research is on the etiology of disorders and disease, particularly associated with physical activity (or lack thereof). My interests include: 1) the response of cytokines (myokines and adipokines) to various conditions such as the combination of mental and physical stress, aging, lack of physical activity and disease cachexia, and 2) methods to reduce the cytokine response to stress.
My broad, long-term goal is to develop countermeasures to prevent muscle loss associated with aging and other disorders (e.g. cachexia). One of my more intriguing research findings is that resistance training induces an increase in fast-twitch fibers in the young, but older individuals display a further increase in the percentage of slow-twitch fibers. We have noted that cytokine levels at rest are higher in older individuals and that these levels remain elevated following a resistance-training program. These data have important implications for the study of physical fitness among older populations. These data also suggest that the field should focus future studies on how the regulation of muscle fibers differs between younger and older adults and on how we can attenuate the basal level of stress experienced by older individuals. Two major questions that remain to be answered are what role does activity plays in this fiber-type transformation, and how is the mitochondria involved in the reduction of fast-twitch fibers as humans age in response to exercise? I would like to develop a strategy to counteract the fiber-type specific atrophy associated with aging. Thus, I plan to compare markers of mitochondrial function and turnover in slow- and fast-twitch muscle fibers in younger and older adults. This research will also examine the efficacy of using resveratrol and other anti-oxidative/inflammatory agents as a countermeasure to oxidative stress in older adults. This research will hopefully help change the way treatments are prescribed to combat the loss of fast-twitch muscle fibers, resulting in reduced fatigue, increased activity, and improved ability to perform activities of daily living for the aging population.
I recently started working with physicians at the University of Kansas Medical Center to identify biomarkers and mechanisms of cachexia associated with severe burn trauma. There is a critical need to predict the onset of cachexia at the earliest stages as patients experiencing cachexia have poor long-term outcomes, including increased fatigability, weakness, and decreased quality of life. Severe burn trauma (total burn surface area >20%) patients suffer from hyper-metabolic conditions and inflammation that often leads to cachexia, defined as extreme skeletal muscle wasting and weakness. A strong relationship exists between cachexia and negative patient outcomes, but the mechanisms for this remain largely unstudied. Advances in transcriptomics allow for the generation of numerous candidate biomarkers with potential clinical value. However, there is remarkably little data on biomarkers and epigenetic changes associated with muscle cachexia in severe burn trauma.
Another interesting research area is the examination of mechanoreceptor transduction in skeletal muscle. This line of research has found that Acetaminophen appears to increase mechanoreceptor transduction in skeletal muscle. For this study, Acetaminophen was administered to rats for 8 weeks and this resulted in higher levels of the 70 kDa alpha7 integrin subunit, total Focal Adhesion Kinase, cSrc and s6k, independent of exercise status. The role that Acetaminophen and other potential COX enzyme inhibitors play in muscle hypertrophy is controversial, but this data suggests a possible mechanism of how Acetaminophen may cause hypertrophy. Considering the extensive use of NSAIDs with older individuals, this research may prove to be extremely relevant to this population. This data was presented at the Experimental Biology meeting in April 2015 and we are planning on submitting the manuscript concerning this study to the Journal of Applied Physiology soon. I am also in the early stages of preparing a proposal to NIH to examine the mechanisms of these findings.
We have also examined the role that heat-shock (prior exposure to high temperature 24-48 hours before exercise) may have in protecting against muscle damage during exercise. Previous study performed by other investigators found that heat shock attenuated damage from cryolesioning in various tissues of animals, but it is physiologically impossible to be exposed to that type of damage by exercise. My approach, then, allows for real-life applications in humans that have the potential of greatly improving the efficiency of treatments and possible prevention of muscle atrophy. In animals, we have shown increased JNK expression following muscle damage. JNK is a known regulator of Caspase-3, which is significantly up-regulated following muscle damage. However, our work in human skeletal muscle show that HSP induction is difficult under practical physiological conditions. However, there is potential for pharmacological interventions to induce the cytoprotective heat shock response.
I am also the Co-PI on a proposal that was awarded by the Office of Naval Research to study a duel stress model (martial arts) with US Marine stationed at Fort Leonard Wood. For this study, we will evaluate the physiological and psychological response to repeated bouts of Marine Corps Martial Arts Program (MCMAP) training. More specifically, we will increase the effectiveness of MCMAP by identifying optimal training intervals and/ or cognitive stimuli that will improve the training environment. In addition to being the Co-PI on the project, my particular role in this study involves the inflammatory/immune response that occurs during this high-stress environment. Acute bouts of moderate and high-intensity exercise induce transient shifts in physiologic systems resulting from the combined physical and psychological demands of the given effort. Within this context, exercise induced alterations of specific immune cell populations and hormonal concentrations are some of, if not the most, established effects of exercise on a physiological system. Thus, we are examining changes in the profile of stress hormones, circulating immune cells and immunomodulatory cytokines following dual stress challenge models.
Since my faculty appointment in September 2004, I have published 30 manuscripts in peer-reviewed journals, have four articles in review, and have co-authored two book chapters (one is in the final stages of being accepted). I have authored 47 published abstracts, and have given 19 peer-reviewed national scholarly presentations. I have submitted 23 research proposals as PI or Co-I to external organizations (ten of which were accepted for funding) and have obtained funding for approximately five million dollars and I have submitted seven internal research proposals, all of which were awarded. Finally, I was awarded the Promising Scholar Faculty Achievement Award from the School of Education at the University of Kansas in 2008.
I have significant administrative experience at the department level, and organizational related service at the school and university level. In my role as the Department’s Director of the Exercise Science programs for the past nine years, I am responsible for program planning, designing student assessments, procedural issues, coordinating curricular changes with the department’s faculty, as well as student recruitment and retention. Part of my responsibilities includes assigning classes for Exercise Science faculty and graduate teaching assistants. The number, diversity and quality of students in our programs are at an all-time high. We have approximately 200 undergraduate Exercise Science majors and 20 graduate students. The majority of undergraduate Exercise Science students are interested in the health care field and the graduate students are pursuing careers in academia or are currently in healthcare positions. As Director of the Applied Physiology Laboratory, I implement and monitor our standards of performance to ensure quality research. I have developed a safe laboratory environment in compliance with good practice and with federal and university regulations. I also coordinate research with our lab and other institutions, including the University of Kansas Medical Center and the University of Missouri, Kansas City School of Medicine. I have served as a member of the Human Subjects Review Board at the University of Kansas for the past nine years. In this capacity, I am acutely aware of ethical issues that are associated with human research, including HIPPA issues, respect for human dignity, privacy, and autonomy and special precautions that need to be taken with vulnerable populations. I have served on the Center for Undergraduate Research Faculty Advisory Board, which has the goal of providing more research opportunities to undergraduate students. Furthermore, I was appointed by the Dean to serve on the Advisory Board of the Assessment and Achievement Institute, one of only twelve research centers at the University of Kansas. I have served on search committees as chair or member many times over the past several years for both my department and other departments within the University. Furthermore, I have served as a Faculty Mentor for an untenured faculty member in our department. At the professional level I am active in the American College of Sports Medicine (ACSM), and am currently applying for Fellow status. I have served as President and as the Kansas State Representative for the Central States Chapter of ACSM and I am a member of the American Physiological Society and the National Strength and Conditioning Association, serving as an active contributor to their meetings.
Gallagher, P. (2013). Stress sensors of skeletal muscle: Heat shock induced cytokine expression. Focus on "Skeletal muscle interleukin-6 regulation in hyperthermia". Am J Physiol: Cell Physiol, 305, C375-C376.
Gallagher, P. Touchberry, C. Teson, K. McCabe, E. Tehel, M. & Wacker, M. (2013). Effects of an acute bout of resistance exercise on fiber-type specific GLUT4 and IGF-1R expression. Applied Physiology, Nutrition and Metabolism, 38, 581-86.
Vardiman, J. Jefferies, L. Touchberry, C. & Gallagher, P. (2013). Intramuscular heating through fluidotherapy and heat shock protein response. Journal of Athletic Training, 48, 353-61.
Touchberry, C. Gupte, A. Bomhoff, G. Graham, Z. Geiger, P. & Gallagher, P. (2012). Acute heat stress prior to downhill running may enhance skeletal muscle remodeling. Cell Stress & Chaperones, 17, 693-705.
Richmond, S. Touchberry, C. & Gallagher, P. (2009). Forskolin attenuates the action of insulin on the Akt/mTOR pathway in human skeletal muscle. Applied Physiology Nutrition and Metabolism, 34, 916-925.
Wacker, M. Tehel, M. & Gallagher, P. (2008). Technique for quantitative RT-PCR analysis directional from single muscle fibers. Journal of Applied Physiology, 105, 308-315.
Selected Awards & Honors
Joyce Elaine Pauls-Morgan Teaching Award
Department of Health, Sports, and Exercise Science
Faculty Achievement Award: Promising Scholar
School of Education at the University of Kansas
Accepted to and attended the Baltic Summer School - Signaling in muscle metabolism
Inducted into University of Wisconsin – Green Bay Phoenix Hall of Fame
Individual Qualifier for NCAA National Championships in Cross-Country Skiing
Nominated for Chancellors Leadership Medallion and University Leadership Award
University of Wisconsin - Green Bay
Individual Qualifier for NCAA National Championships in Cross-Country Skiing
Individual Qualifier for NCAA National Championships in Cross-Country Skiing