Team Members

---Gregory D. Myer, PhD, FACSM, CSCS*D brings over two decades of experience to lead the activities at Emory Sports Performance And Research Center (SPARC) located at the Atlanta Falcons Flowery Branch headquarters. Dr. Myer previously supported the founding of and directed The SPORT Center and The Human Performance Laboratory in the Division of Sports Medicine at Cincinnati Children's Hospital Medical Center. Dr. Myer has published over 480 medical manuscripts (h-Index Scopus: 92; Google Scholar: 123; Total Citations:>62,000) is recognized as an international leader in the field of athletic injury biomechanics, injury prevention clinical trials and human performance neuroscience. Dr. Myer is commonly an invited expert speaker to the national and international symposia. He has received numerous awards for his team’s excellence in research and is certified with Distinction and is a recent recipient of the William J. Kraemer Outstanding Sport Scientist Award by the National Strength and Conditioning Association. In past year Dr. Myer was recognized for the Hugh C. McLeod, III, M.D. Award of Excellence from the Arthritis Foundation and the Bart Mann Award for the Advancement of Sports Medicine Research from the American Orthopaedic Society for Sports Medicine. Dr. Myer is currently a Fellow of the American College of Sports Medicine and was the recipient of Rocky Mountain University of Health Professions Outstanding Alumnus Award and Franklin College Distinguished Alumni Award as a doctoral- and undergraduate-degree recipient, respectively.

Dr. Myer is serving or has served as an investigator on several multi-million dollar federal and industry-sponsored grants in support of knee injury/concussion prevention and exercise training for performance, injury prevention, rehabilitation and health research. From a standpoint of moving the field forward with injury prevention, rehabilitation and sport performance science in the young athlete, Dr. Myer’s scientific impact is highlighted by his efforts to translate scientific discovery into innovative clinically viable tools that can be widely disseminated and benefit targeted populations. Along these lines, Dr. Myer and his team have invented aNMT (patented-augmented neuromuscular training; pronounced “animate”), a self-guided interactive biofeedback technology for improving rehabilitation and preventing injuries. aNMT biofeedback is created and driven from a user’s own real-time biomechanical (movement) data, which “animate” an interactive object that will support personalized tele-medicine of the future. The biofeedback system was awarded the Innovations funding and Third Frontier Innovation Creative Opportunity funding and has been designated as a top medical innovation targeted for commercialization accelerator programs. In line with innovations that are focused to ‘make a difference,’ Dr. Myer has led investigations into strategies to best prevent brain injury in response to head impact exposure in sports. Specifically, he has led clinical trials that supported FDA clearance for an innovative medical device designed to prevent brain injury from sports related head impact and avert these and other negative outcomes. Building upon these achievements, Dr. Myer is uniquely positioned to lead the state-of-the-art Emory Sports Performance And Research Center (SPARC) located at the Atlanta Falcons football headquarters that will serve as the nation’s leading center for research advancements and dissemination of injury prevention, rehabilitation and sport performance in young athletes.

Dr. Diekfuss provides unique interdisciplinary expertise that will accelerate SPARC as the premier center for injury prevention in youth athletes. Dr. Diekfuss holds Bachelor’s and Master’s degrees in experimental psychology from the University of Wisconsin-Oshkosh and a doctorate in kinesiology from the University of North Carolina at Greensboro (applied neuromechanics). More recently, Dr. Diekfuss specialized his research in neuroimaging and motor control while a post-doctoral research fellow at Cincinnati Children’s Hospital. In direct alignment with the proposed field-based and lab-based research programs, and the overall aims of SPARC more generally, his primary expertise is in the neuroscience of human movement. Specifically, he integrates novel neuroimaging methods to discover the brain mechanisms underlying ACL injury, injury prevention, and injury rehabilitation. Dr. Diekfuss has published extensively in movement neuroscience, highlighted by his lead author publication that received the Journal of Science and Medicine in Sport’s editor’s choice award for the discovery of a potential neural biomarker underlying ACL-injury risk. Dr. Diekfuss has further translated his expertise to support brain injury prevention research and has served or is serving as co-investigator on numerous intramural and extramural grants that have procured over $1.8 million in funding. Dr. Diekfuss has considerable expertise in neuroimaging analytics for a range of modalities including task-based fMRI, resting-state fMRI, structural MRI, diffusion tensor imaging, and more. Further, his expertise in interpreting neuroimaging findings within the context of human movement are directly aligned with the aims of the Dynamic Imaging Systems Creating Opportunity for Visionary Education and Research (DISCOVER) and Integrated Motion Analysis for Gross-motor Imaging & Neuroscience Exploration (IMAGINE) programs within SPARC. Dr. Diekfuss’ unique, harmonized experience across neuroscience, ACL injury, sports-related concussion, and human movement will provide the expertise to propel SPARC as the premier headquarters for injury prevention research in youth athletes. Dr. Diekfuss will serve as a key faculty member at Emory and is on trajectory to achieve scientific breakthroughs that will continuously advance SPARC for years to come.

Dr. Anand has targeted research centering on the mechanistic understanding of human movement for advancing rehabilitation and injury prevention, ultimately focused to inform the development of enabling and enhancing technologies. Dr. Anand’s dissertation entitled, “Propulsive Characteristics of Rotary Force and Its Influence on Bipedal Gait Initiation and Gait Transition Speed” integrated a combination of theoretical and experimental biomechanical analyses of the rotational actuation of legs during everyday activities to elucidate how robust dynamic movements relate to levels of rotational actuation in bipedal locomotion. Dr. Anand’s unique and complimentary background in biomechanics, mechanical engineering and mechatronics fostered his integration into a NIH-funded post-doctoral research fellow position under Dr. Greg Myer where he specializes in integrating and developing MRI safe technologies and mechanisms for measuring, analyzing, and interpreting lower-extremity biomechanics during brain neuroimaging for large-scale neuromuscular training clinical trials. His expertise in software development has resulted in novel neuroimaging processing pipelines that automate a bulk of manual processing tasks and drastically improve analysis efficiency. With relation to SPARC research, Dr. Anand maintains extensive experience with the biomechanical measurement systems proposed to be utilized and has developed custom tools to facilitate acquisition and analysis of the of these measurements. Through the Integrated Design, Engineering, & Automation (IDEA) program, Dr. Anand will develop state of the art MR compatible lower extremity movement systems to advance the goals of the IMAGINE program. Dr. Anand’s complimentary expertise with engineering and biomechanics supports almost all aspects of the research team assembled to integrate cutting edge neuroscience and biomechanics to optimize injury prevention and rehabilitation strategies in youth.

Dr. Riehm studies human perception and action by combining virtual reality, full-body motion capture, and mobile Electroencephalography (EEG). He also employs advanced statistical techniques to characterize data generated from the brain and body, aiming to clarify the complex aspects of sensorimotor function that both enable human performance and cause debilitating injury. Chris started his academic journey by studying ecological psychology and embodied cognition, which stress the importance of research methodologies that allow the function of brain-body-environment systems to be captured holistically. At SPARC, he applies this philosophy to the study of sports, which consistently prove the deeply dynamic and context sensitive nature of human behavior. Chris is also interested in music and sound; his dissertation addressed the dynamics of sound localization behavior using VR and HRTF based spatialization. In his free time, Chris plays instruments, sings, and builds virtual reality games and other software.

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Andrew is a Clinical Research Coordinator with over 4 years of experience who maintains considerable knowledge pertaining to motion analysis systems, data management, and data processing/analysis. Specifically, he has collected, cleaned, and managed motion analysis data from multiple sites capturing and processing data simultaneously for our NIH funded projects, and will provide a similar role at SPARC while also engaging in biomechanical data analyses for all projects. Not limited to just the motion systems, Andrew also works to maintain the integrity of the force platforms, instrumented devices, other technologies, and the overall SPARC facility. Andrew is also trained in the implementation of our neuromuscular training programs, overseeing the execution of these programs at Emory SPARC.

Dr. Slutsky-Ganesh focuses on using neuroscience to advance research in the fields of human movement and exercise psychology. Dr. Ganesh has a background in exercise physiology (Bachelor’s and Master’s) and is a certified clinical exercise physiologist through the American College of Sports Medicine. Dr. Ganesh earned a PhD in kinesiology from the University of North Carolina Greensboro (specializing in exercise psychology) where she was able to apply her clinical exercise physiology skills into a laboratory setting by designing exercise protocols aimed to enhance brain function in both young and older adults. During her doctoral program, Dr. Ganesh developed an in-depth understanding of neuroimaging data, fMRI/MRI study design, and neuroimaging analytics more broadly. Dr. Ganesh then completed two postdoctoral fellowships focused in neuroimaging analytics. The first postdoc position was at the University of North Carolina Greensboro where Dr. Ganesh served as the primary neuroimaging analyst on an Alzheimer’s disease-related NIH/NIA R01. The second postdoc position was at Emory SPARC where Dr. Ganesh served as the primary neuroimaging analyst for a neuromuscular training program-related NIH/NIAMS R01, but also was able to develop unique pipelines to analyze diffusion weighted images (DTI) in human skeletal muscle and swine brain. Following her postdoctoral fellowships, Dr. Ganesh was hired as an Associate Research Scientist at Emory SPARC where she is responsible for all neuroimaging data management, quality assurance, analytic pipeline development and implementation, and training of postdoctoral fellows in neuroimaging analytics. At Emory SPARC, Dr. Ganesh focuses on lower extremity gross motor task-based fMRI, human brain and muscle DTI, and swine DTI, while maintaining her relationship with the University of North Carolina Greensboro and serving as site PI for an ongoing Alzheimer’s disease-related NIH/NIA R01. Dr. Ganesh’s expertise in neuroimaging analytics is critical towards advancing the missions of SPARC to understand, prevent, and improve rehabilitation for musculoskeletal injuries and head trauma in sport.

Taylor Zuleger is a PhD Candidate with more than six years of combined neuroscience-related research experience at the University of Wisconsin-Green Bay, Northwestern University, University of Cincinnati, and Emory SPARC. Mr. Zuleger maintains considerable experience in electroencephalography (EEG) analyses and functional magnetic resonance imaging (fMRI) as it relates to human behavior. His work aims to translate neuromechanistic discoveries toward novel sports-related injury-risk reduction and injury rehabilitation strategies. For instance, Mr. Zuleger is isolating brain functional and structural alterations following concussive and sub-concussive impact exposure, with a goal to deconstruct how neurologic impairment could lead to long-term neuromuscular dysfunction.  By expanding his expertise across complementary assessment modalities and employing advanced analytics, including 3D motion analysis technologies and psychophysiological interaction analyses (PPI), Mr. Zuleger’s work is expected to translate to novel intervention strategies that adopt a top-down treatment approaches to maximize outcomes for adolescent athletes. Mr. Zuleger is a key member of the DISCOVER and IMAGINE programs and supports all aspects of MRI-related data collection, data analysis, and grant/manuscript development.

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Shayla is a Clinical Research Coordinator III, with a combined 6 years of research experience. She has extensive experience with electroencephalography acquisition and conducting research amongst pediatric and adolescent populations. Previously, Ms. Warren assisted with research pertaining to mild traumatic brain injury, sport psychology, facial processing, language and literacy in at-risk pediatric populations, quality of life for adolescents with autism spectrum disorder, and pediatric ethical decision making. At Emory SPARC, she aims to further isolate brain alterations associated with childhood and adolescent brain injury to support the development of novel injury prevention technologies. Specifically, she utilizes modalities including functional magnetic resonance imaging and electroencephalography to inform novel treatments that promote neural recovery. Ms. Warren brings her expansive experience with prospective longitudinal clinical trials and pediatric research to support all study activities at Emory SPARC, with a primary focus on neurologic assessment methods and protocols. Outside of research activities, Ms. Warren supports local school tours, student activities, as well as workplace training and supervision.

Dr. April McPherson’s research area of interest is the increased risk of lower extremity musculoskeletal injury following a concussion. She is passionate about application and dissemination of research findings beyond the walls of academia to support athletic performance and reduce the risk of injury. At SPARC, Dr. McPherson is leading our recently developed virtual-reality initiative, GIVES, focused on high school outreach and implementation. Dr. McPherson completed her undergraduate degree in Biomedical Engineering at the University of Cincinnati, where she also ran track and field. She then completed her PhD at the Mayo Clinic, where her thesis focused on how neural contributions affect ACL injury risk and recovery. She supported Team USA for 3 years as an associate data scientist for sports medicine and performance before joining the team at Emory SPARC.

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Dr. Hulburt is a post-doctoral fellow, bringing expertise in human motion biomechanics and 3-dimensional (3D) motion analysis techniques. Dr. Hulburt completed her PhD at Virginia Tech - Wake Forest University, where she studied the biomechanics of common and repetitive sport-specific motions in dancers and baseball pitchers with the goal of reducing overuse injuries by identifying and addressing unsafe movement patterns.

At SPARC, her research aims to unravel the intricate relationship between pain and movement. Her work is driven by the overarching goal to identify and eliminate barriers that impede comfortable and safe movement for people with complex pain conditions. She contributes her biomechanical expertise to the aNMT (augmented neuromuscular training) and FIT Teens (Fibromyalgia Integrative Training Program for Teens) teams to understand how biofeedback and neuromuscular training can be applied to both athletic and patient populations to create a foundation of pain-free and safe movement patterns. She aims to continue building upon this work to develop movement-based therapies to improve the quality of life for individuals suffering from pain.

Dr. Kyle Anderson studies the potential long-term consequences of bone bruising after ACL rupture and the biological changes to autografts implanted in ACL reconstruction surgery using MRI. Kyle is also involved in research at NASA where he investigates astronaut musculoskeletal health after long duration spaceflight. Previously, Kyle’s research at Rush University Medical Center focused on the biological factors that determine metal implant fixation in bone, with a particular emphasis on bone microarchitecture and matrix composition, which is critical to the success of total joint replacement. At SPARC, Kyle aims to apply this expertise in musculoskeletal biology to improve bone health and biomechanics particularly in the context of sports injuries and ACL reconstruction. Kyle’s career ambitions include a residency in orthopaedic surgery as well as supporting human spaceflight as a surgeon-scientist, where he believes that advances in our understanding of health in the extreme environment of space can also influence clinical practice on Earth.

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Dr. Kwak uses principles of biomechanics to research ways to enhance human performance in the context of sports. He brings a wealth of experience in studying how human muscles and tendon behave under load, beginning his research career in high school as he spent time at Northwestern University's Feinberg School of Medicine evaluating the effectiveness of various rehabilitative devices on gait before continuing on to obtain an undergraduate degree in Biomedical Engineering at the University of Rochester, investigating the biomaterial properties of human tendon. Most recently, Dr. Kwak completed his Ph.D. in Applied Physiology at Georgia Tech learning about how muscle lengthening feedback may be leveraged by the nervous system to indirectly estimate more abstract measures. These experiences have afforded him a diverse skillset in 3D motion analysis, ultrasound, machine learning, among others to effectively tackle the most pressing questions in sports science research.

Korbyn is in her final year pursuing her Bachelor of Science in Health Sciences through Arizona State University. Korbyn serves as a Clinical Research Interviewer and works alongside Dr. April McPherson and Dr. Chris Riehm to develop and lead the Georgia Initiative for Virtual-Reality in Education and Sport (GIVES) project. Within SPARC, Korbyn oversees the Hall County Work-Based Learning program, offering students valuable exposure in sports performance and research career fields.