Javier Courel Ibáñez serves as a Permanent Labor Professor (Associate Professor) in the Department of Physical Education and Sports at the Faculty of Education and Sports Sciences Melilla. His teaching responsibilities include structured tutoring sessions held Wednesdays from 9:00-12:00 and 15:00-19:00 in Office 007 across both academic semesters. His research spans Sports Science , Exercise Physiology , and Biomechanics , with concentrated expertise in athletic performance assessment, injury epidemiology, and evidence-based exercise interventions. Key domains include football (soccer) injury dynamics, padel performance analysis, rehabilitation protocols for tendinopathies, and physical activity applications for aging populations and post-COVID-19 recovery. His methodological approach integrates velocity-based resistance training, systematic literature reviews, and prospective cohort studies to address contemporary challenges in sports medicine. Analysis of his 2022-2025 publications reveals three dominant research trajectories: pandemic-related sports injury patterns (particularly in female football), technology-driven performance assessment (MyotonPRO reliability, resistance-band testing), and special population interventions (older adults, rheumatic conditions). His work consistently bridges laboratory findings with practical applications through EULAR collaborations and sport-specific training protocols.
Dr. Yan Chen is an Associate Professor in Engineering at The Polytechnic School, Arizona State University (ASU), where he founded and directs the Dynamic Systems and Control Laboratory (DSCL). His academic journey includes a Ph.D. in Mechanical Engineering from The Ohio State University (2013), an M.S. in Mechanical Engineering from Rice University (2009), and dual M.S. and B.S. degrees in Control Science and Engineering (with honors) from Harbin Institute of Technology, China (2006, 2004). Ph.D., Mechanical Engineering, The Ohio State University, 2013 M.S., Mechanical Engineering, Rice University, 2009 M.S., Control Science and Engineering (Honors), Harbin Institute of Technology, China, 2006 B.S., Control Science and Engineering (Honors), Harbin Institute of Technology, China, 2004 Dr. Chen's research spans multiple critical areas in modern vehicle technology, with primary focus on design, modeling, estimation, control, optimization, and safety of dynamic systems. His work specifically targets connected and automated ground vehicles, electric/hybrid vehicles, multi-agent mobile systems, energy systems, and mechatronic applications. Recent research has emphasized tire blowout modeling and control, vehicle safety systems, and flocking control for multi-vehicle coordination. His laboratory actively develops innovative control frameworks that integrate machine learning with traditional control methods to enhance vehicle safety and performance. Analysis of Dr. Chen's recent publications (2023-2025) reveals a strong emphasis on safety-critical control systems for automated vehicles, particularly focusing on tire blowout scenarios, vehicle flocking behavior, and multi-agent coordination. His work increasingly integrates learning-based approaches with traditional control theory, demonstrating a shift toward more adaptive and robust control frameworks. The research spans both theoretical developments in control theory and practical applications in automotive systems, with growing attention to satellite-based localization and energy management for electric vehicles. 2020 SAE Ralph R. Teetor Educational Award 2019 DSCC Automotive and Transportation Systems Best Paper Award NSF-PFI grant on Development and Integration of Tire Blowout Modeling and Control in Advanced Driver Assistance Systems (2024) Dr. Chen has successfully advised multiple graduate students, including recent PhD graduate Dr. Ao Li who joined General Motors. His research has been generously funded by major federal agencies including NSF, DOE, ONR, and ACA, as well as industrial partners such as General Motors, Intel, SRP, and MathWorks. Current research projects focus on tire blowout modeling, vehicle safety systems, and automated vehicle coordination. He serves as Associate Editor for several prestigious journals including IFAC Mechatronics and IEEE Transactions on Vehicular Technology, and chairs the ASME Automotive and Transportation Systems Technical Committee. The Dynamic Systems and Control Laboratory (DSCL) at ASU is a thriving research environment focused on cutting-edge vehicle control systems. The lab actively recruits 1-2 PhD students annually with strong backgrounds in vehicle dynamics, control theory, and optimization. Current research directions include tire blowout modeling, vehicle safety systems, multi-agent coordination (flocking control), and energy optimization for electric vehicles. The lab maintains strong industry connections, particularly with automotive companies like General Motors, ensuring research relevance to real-world applications.
Anne-Lise Jouen is an Associate Professor at the Faculty of Sports Sciences, University of Burgundy, where she is affiliated with the INSERM U1093 Laboratory. She has held prestigious research positions at institutions including the University of Geneva, University of Tokyo, and Sorbonne University. Her academic credentials include: PhD in Neuroscience (2013) from Stem cell and Brain Research Institute, Claude Bernard University – Lyon I Master 2 in Engineering of Cognition, Creation and Learning (2009) from Grenoble INP Master 2 in Neuropsychology (2009) from Université Pierre Mendès France Master 1 in Cognitive Sciences (2008) from Université Lumière Lyon II Licence in Psychology and Cognitive Sciences (2007) from Université Lumière Lyon II DIU in Gerontechnology (2010) from Joseph Fourier University and others Dr. Jouen's research focuses on the intersection of neuroscience, language processing, and technology. She investigates how the brain processes language and spatial information through embodied cognition frameworks, employing neuroimaging techniques like fMRI, EEG, and fNIRS. Her recent work explores human-robot interaction for language learning and autism intervention, demonstrating through EEG monitoring that social robots increase functional connectivity in children's brains during language acquisition. Her publication record shows consistent research impact across multiple domains including semantic processing, speech production, and autism interventions. Notable projects include the GOLIAH platform for home-based autism intervention and research on telepresence robotics' impact on spatial cognition. Her scientific recognition includes the JSPS fellowship award for her post-doctoral research at the University of Tokyo. Dr. Jouen's current research trajectory includes: 2022-2023: Post-doctorate studying telepresence robotics and virtual reality effects on spatial representations at CAPS Laboratory 2017-2020: Speech production research using EEG (SNF Sinergia Project MoSpeeDi) at University of Geneva 2015-2017: Language learning via human-robot interactions at University of Tokyo 2013-2015: Autism social skills evaluation via ICT at Sorbonne University
Olivier White is a Professor at the University of Burgundy's Faculty of Sports Science (UFR STAPS), where he maintains his laboratory at Espace Marey. With extensive teaching experience across engineering and neuroscience disciplines, he supervises MSc and PhD students while leading a multidisciplinary research program focused on motor control mechanisms under normal and altered gravity conditions. His educational background spans civil engineering and neuroscience, with a BSc (1997), MSc in Computer Science (2000, summa cum laude), DEA in Applied Mathematics (2002), and PhD in Neuroscience and Applied Mathematics (2007), all from Louvain School of Engineering, Belgium. He completed his Habilitation in 2016 with research titled 'From basic motor control to applications' and earned French Qualification for the Neuroscience Section in 2020. White's research investigates how the brain controls diverse actions through innovative approaches including 3D virtual reality, haptic devices, and gravitational manipulation via parabolic flights and centrifuges. His work addresses fundamental questions about sensory information in learning, motor skill generalization, and strategy selection. He employs motion capture, force measurements, electromyography, fMRI, and mathematical modeling approaches including optimal control and fractal analyses. His publication record reveals a consistent focus on gravity-related motor adaptation, with recent work exploring sensorimotor control in inverted postures, resonance phenomena in rhythmic movements, and spaceflight effects on operational performance. His research bridges theoretical physics with practical neuroscience applications, particularly in space physiology and rehabilitation contexts. Dr. White maintains an active teaching portfolio across multiple institutions including University of Burgundy, King's College London, and ESTP Engineering School. His courses range from basic computer science to advanced topics in computational motor control, space physiology, and deep learning applications. Motor control and learning mechanisms Altered gravity effects on human movement Virtual reality and haptic applications Fractal analysis of movement patterns Space physiology and neurorehabilitation Mathematical modeling of motor control He actively supervises research projects at undergraduate and graduate levels, building a laboratory that combines behavioral, neuroimaging, and mathematical methods to understand movement planning and execution. Through international collaborations, particularly in space-related research, he develops applications with societal benefits in rehabilitation and human performance enhancement.
Riccardo Beltramo is an Assistant Professor and University Lecturer in Neurophysiology at the Department of Physiology, Development and Neuroscience, University of Cambridge. As a Sir Henry Dale Fellow, he leads research on neural circuits in visual processing, spatial navigation, and cognitive control. His lab investigates how ancient and modern brain regions like the superior colliculus and visual cortex interact to produce adaptive behaviors. Key techniques include chronic electrophysiology, two-photon imaging, optogenetics, and virtual reality behavioral paradigms, focusing on stress-induced anxiety and sensory processing pathologies. Recent publications highlight studies on tecto-thalamic pathways, somatosensory cortical dynamics, and evolutionary integration of visual systems. His work combines single-cell RNA sequencing, structured illumination, and advanced photonic tools to dissect neural circuitry. Eppendorf & Science Prize (2020) Sir Henry Dale Fellowship Current students include PhD researchers Sally Zeidan and Maja Skretowska. Lab contact: beltramolab@gmail.com
Marco Tofani is a Tenure-Track Researcher at the Department of Life, Health, and Health Professions Sciences at Link Campus University in Rome. He specializes in Migration, Disability, and Global Health and holds a PhD in Infectious Diseases, Microbiology, and Public Health (2023) from Sapienza University of Rome. BSc in Neuro- and Psychomotor Therapy of Developmental Age (2009) BSc in Occupational Therapy (2014) Master's in Rehabilitation Sciences (2017) Specialization in Neurorehabilitation (Bobath concept, 2014) First Level Master's in Hand Rehabilitation (2015, University of Milan) His research focuses on disability validation studies , assistive technologies, and community-based rehabilitation frameworks. He collaborates with the Bambino Gesù Children's Hospital on pediatric dysphagia protocols and prosthetics, and serves as an international consultant for the World Health Organization in Ukraine. He co-founded the ROMA - Rehabilitation & Outcome Measures Assessment Association and leads the Disability and Migration Working Group at the Italian Society of Migration Medicine (since 2017). Recent publications include validation of clinical tools for pediatric dysphagia , prosthetic satisfaction, and global health equity, with a focus on cross-cultural adaptation and psychometric rigor. His work bridges clinical practice and policy for refugee populations. No scientific awards are explicitly listed in the provided text.
Huey-Ming Tzeng is a tenured Professor at the University of Texas Medical Branch (UTMB) School of Nursing, holding a PhD in Nursing from the University of Michigan and designation as a Fellow of the American Academy of Nursing (FAAN). Her research program centers on gerontological nursing, with emphasis on dementia care, fall prevention, and health equity for aging populations. She maintains active clinical engagement through Rotary Club humanitarian initiatives and Sealy Center on Aging fellowship. Her academic credentials include: PhD in Nursing, University of Michigan, Ann Arbor MS in Nursing, University of Michigan, Ann Arbor BSN, National Yang-Ming University, Taipei, Taiwan Certified in Basic Life Support (BLS) Dr. Tzeng's research examines social determinants affecting self-care practices in older adults, particularly regarding treatment decisions and fall prevention. She investigates policy interventions like Medicare Annual Wellness Visits to address disparities in dementia diagnosis, while developing innovative solutions such as telehealth for stroke rehabilitation and the UTMB Holographic Patient Evaluation System. Her methodological approach integrates qualitative analysis of patient/caregiver experiences with large-scale quantitative studies of healthcare utilization patterns. Recent publication trends reveal three dominant research trajectories: (1) Policy analysis of Annual Wellness Visits' impact on early dementia detection among Medicare beneficiaries; (2) Systematic reviews evaluating telehealth interventions for stroke recovery and mindfulness-based stress reduction for nurses; and (3) Disparities research examining racial/ethnic differences in skilled nursing facility referrals and caregiving burdens. Her work consistently bridges clinical practice with health policy implications. Her scientific recognition includes: 2022 Excellence in Nursing Award-Gold Winner (academic nursing) Odelia Brown McCarley Endowed Professorship in Nursing (2019) Multiple alumni awards from National Yang-Ming University Paul Harris Fellow designation from Rotary Foundation Senior Fellow status at Sealy Center on Aging Dr. Tzeng directs significant NIH-funded research examining how Annual Wellness Visits affect dementia diagnosis disparities among Medicare beneficiaries with Alzheimer's Disease. Her current grants include the UTMB Holographic Patient Evaluation System project and studies on pandemic impacts on nursing education. She serves on editorial boards for nursing journals and mentors junior faculty through American Academy of Nursing initiatives. As a Senior Fellow of the Sealy Center on Aging, she collaborates with interdisciplinary teams across UTMB's Institute for Translational Sciences. Her Rotary Club involvement connects academic work to community health initiatives, particularly through the Rotary Action Group for Peace focusing on elder care. She actively participates in Alzheimer's Association research networks and Gerontological Society of America policy committees.
Rita Ayyangar, M.D., is a Clinical Professor at the University of Michigan's Michigan Medicine, Department of Physical Medicine & Rehabilitation. She practices at 2205 Commonwealth Blvd, Ann Arbor, MI, United States, and holds an ORCID identifier 0000-0002-8638-0475. Her work spans clinical, research, and teaching domains. MB BS, Byramjee Jeejeebhoy Medical College, Pune, India (1979–1984) Chief Resident, Columbus Hospital, Pediatrics, United States (May 1998–Jul 1989) Her research focuses on Cerebral Palsy , Neuromuscular Disorders , and Chronic Pain Management , particularly in pediatric populations. She explores Spinal Dysraphisms , Communication Disorders , and Rehabilitation Technologies like Infusion Pumps . Her scholarly trends emphasize Functional Assessment , Transitional Care , and Medical-Legal Advocacy . Scientific Awards & Grants UCP Institutional Clinical Fellowship Grant (1995–1999) Intrathecal vs Oral Baclofen Study (2003–2012) NIH Grant for Inspection Time Study (2008–2010) MI-LEND Leadership Education in Neurodevelopmental Disabilities (2016–2024) Medical-Legal Partnership Grants (2014–2016) She mentors through hands-on workshops like "POTS" (2024), focusing on Ultrasound-Guided Chemodenervation . While no lab or team details are explicitly mentioned, her collaborations with co-authors like Katherine Alter , Eric Hurvitz , and Daniel Cifu highlight her interdisciplinary approach.
Vesa Naukkarinen is a Professor of Kinesiology at Southwestern Adventist University (SWAU), where he has taught for 15 years with expertise in Exercise Physiology. His role encompasses teaching core courses like Exercise Physiology and Biomechanics alongside activity-based instruction in sports including Floorball and Tennis. His educational foundation includes: Ph.D. in Kinesiology, Texas Woman's University (2019), specializing in Exercise Physiology with Administration minor M.S. in Kinesiology, University of North Texas (2001) B.S. in Physical Education, Southwestern Adventist University (1999) Research focuses on cardiovascular adaptations to exercise, particularly through Floorball and interval training protocols. His work examines waist circumference as a health marker, cardiovascular drift mechanisms, and cold exposure applications for muscle preservation. This bridges theoretical exercise science with practical health interventions for diverse populations from adolescents to sedentary adults. Publication trends reveal consistent exploration of cardiovascular fitness optimization over 15 years, with Floorball emerging as a key research modality for high-intensity training. His work spans laboratory-based biomechanics studies to community health applications, emphasizing accessible fitness solutions and physiological monitoring techniques. Scientific recognition includes: Third place winner in Graduate Level Research Poster category at 2016 TAHPERD Convention As Kinesiology faculty, Dr. Naukkarinen mentors students through courses like Senior Seminar and Internship programs. While specific advisees aren't listed, his curriculum development in ACSM certification courses indicates active student training. No grant funding details appear in the source material. Professional engagement includes membership in SHAPE America, National Strength and Conditioning Association, and American College of Sports Medicine, though no dedicated research laboratories or teams are specified in the provided text.
Sakiko Oyama, Ph.D., is an Associate Professor in the Department of Kinesiology at the University of Texas at San Antonio (UTSA), affiliated with the College for Health, Community and Policy (HCAP). Her research focuses on biomechanics, upper extremity injury prevention, and rehabilitation technologies. Education: Ph.D. in Human Movement Science, University of North Carolina at Chapel Hill (2012) M.S. in Sports Medicine, University of Pittsburgh (2006) B.S. in Exercise and Sports Science, Oregon State University (2004) Dr. Oyama's work integrates motion capture technology , musculoskeletal modeling , and wearable sensors to analyze spine load estimation , shoulder injury mechanisms , and core muscle training . She has received grants for projects including Fatigue-induced shoulder injuries and Computational Framework for Spine Loads . Recent publications examine markerless motion capture systems , IMU-based kinematics , and shear wave elastography applications. Her interdisciplinary approach bridges biomechanics , data science , and autism spectrum disorder assessment . Grants: Effects of desensitization of plantar surface in autism (2022, $4,998) Computational Framework for Spine Loads (2022-2023, $20,000) Fatigue-induced shoulder injuries (2022, $5,000) Investigation of lumbo-pelvic-hip function in baseball pitching (2018-2021, $54,996) Dr. Oyama has presented at international conferences including the International Society of Biomechanics in Sports and Society for the Neural Control of Movement . Contact: sakiko.oyama@utsa.edu
Kimberly McArthur is an Assistant Professor in the Biology Department at Southwestern University, where she investigates neural circuit development and function using larval zebrafish as a model organism. Her research integrates electrophysiology, neuronal tracing, calcium imaging, and behavioral analysis to address fundamental questions about synaptic partner selection, circuit resilience, and functional development. Ph.D. in Neuroscience (2011), Washington University in St. Louis B.A. in Biology (2004), Gustavus Adolphus College Her research focuses on neuroscience and developmental biology , particularly how neurons in the vertebrate hindbrain establish and maintain functional synaptic connections. Recent work in Trends in Neurosciences and the Journal of Comparative Neurology highlights her contributions to understanding dendrite topography and motor neuron input specificity. McArthur’s students have won awards at the Texas Academy of Sciences, including first-place undergraduate presentations on topics like zebrafish axon pathfinding and pipefish male pregnancy anatomy. She is supported by grants such as the Sam Taylor Fellowship and NIH Ruth L. Kirschstein NRSA awards. She teaches courses on developmental biology , neurobiology , and scientific thinking , emphasizing critical analysis of primary literature and experimental design. Her laboratory at Southwestern University explores adaptive self-organization in neural systems and the interplay between development and evolution.
Madeleine Grealy is a Professor in the Department of Psychology at the University of Strathclyde, where she has been based since 2000. A Chartered Psychologist and HCPC registered Sport and Exercise Psychologist, she leads research in stroke rehabilitation and perceptuo-motor control across the lifespan. Her work integrates clinical practice with engineering approaches to develop accessible rehabilitation solutions. Her primary research focuses on stroke rehabilitation , developing low-cost interventions to improve upper limb function, physical activity, and cognitive abilities in stroke survivors. She also investigates age-related changes in perceptuo-motor control and how movement perception influences older adults' activity engagement. A significant contribution is her work on the tau-guide model for timing motor actions, bridging theoretical and applied movement science. Analysis of her recent publications reveals a strong trend toward technology-enhanced rehabilitation, particularly virtual reality and biomechanical analysis. Her work consistently addresses practical implementation challenges in clinical settings while maintaining rigorous scientific methodology across neuroscience, psychology, and engineering disciplines. Scientific Recognition: DESIGN Conference Outstanding Contribution Award (2018) Professor Grealy has secured substantial research funding totaling over £1.5 million as PI or co-investigator, including grants from EPSRC, Chief Scientist Office, and The Dunhill Medical Trust. Her collaborative approach spans psychology, engineering, and clinical practice, with notable projects on community-based cycling for stroke survivors and virtual reality exercise systems for older adults. She actively supervises PhD students through the Scottish Graduate School of Social Science Doctoral Training Partnership. Her laboratory utilizes advanced equipment including Berkelbike virtual reality systems and Qualysis ProReflex motion capture technology to conduct biomechanical analyses of movement in stroke rehabilitation and ageing populations.
Cees Dekker is a full Professor at the Department of Bionanoscience within the Faculty of Applied Sciences at Delft University of Technology (TU Delft). He leads the BN/Cees Dekker Lab, which focuses on cutting-edge research at the intersection of physics, biology, and nanotechnology. His work bridges fundamental biophysical principles with practical applications in biomedicine and synthetic biology. Professor Dekker's research interests center around single-molecule biophysics, particularly the mechanics and organization of DNA and chromosomes. His lab investigates nuclear pore complex function, develops nanopore-based sensing technologies, and explores synthetic cell construction. His work combines advanced experimental techniques including optical microscopy, microfluidics, and nanofabrication to study biomolecular systems at unprecedented resolution. His recent publications reveal a strong trend toward understanding DNA organization mechanisms, particularly through loop extrusion by SMC complexes, and developing novel nanopore technologies for protein sequencing and bacterial detection. His work spans fundamental biophysical questions to potential biomedical applications, especially in point-of-care diagnostics. Among his notable recognitions is the Professor of Excellence award (Leermeesterprijs) from TU Delft in 2018, recognizing his exceptional teaching and mentorship. He has served as editor for multiple prestigious journals including Nanotechnology, Bionanotechnology, and Nano Letters since 2004. Professor Dekker has supervised 45 students and has been involved in significant research projects including 'Towards point-of-care detection of biomarkers for neglected tropical diseases program' (2016-2021), which focused on developing diagnostic tools for resource-limited settings. His lab maintains active collaborations across multiple disciplines and institutions. The Cees Dekker Lab operates at the forefront of bionanoscience, combining expertise in physics, biology, and engineering to address fundamental questions about cellular processes while developing innovative technologies with real-world applications in healthcare and biotechnology.
Jeffery Kocsis serves as Professor of Neurology and of Neuroscience at Yale University School of Medicine. He holds multiple leadership positions including Director of Postdoctoral Studies and Associate Director of the Yale Center for Neuroscience and Regeneration Research. Additionally, he serves as Senior Medical Research Career Scientist with the Department of Veterans Affairs, reflecting his commitment to veteran healthcare research. PhD from Wayne State University (1976) Postdoctoral Fellow at Harvard Medical School and MIT (1977) Dr. Kocsis's research program focuses on neural regeneration and repair mechanisms, particularly in spinal cord injury. His laboratory investigates cell transplantation therapies using mesenchymal stem cells and Schwann cells to promote nerve regeneration. The research spans from basic mechanisms of axonal growth to translational studies in animal models and clinical applications for patients with neurological injuries. His work has significant implications for developing novel treatments for spinal cord injury, stroke, and other neurological conditions. Analysis of Dr. Kocsis's recent publications reveals a strong focus on mesenchymal stem cell therapy for neurological conditions, particularly spinal cord and brain injuries. His research demonstrates the therapeutic potential of both direct cell transplantation and the use of extracellular vesicles derived from these cells. The publications show a progression from basic animal studies to early clinical applications, with several case series and clinical trial protocols recently published. His work consistently explores the mechanisms of action, optimal delivery methods, and combination therapies to enhance functional recovery. Dr. Kocsis maintains a highly collaborative research program, frequently working with colleagues including Masanori Sasaki, Karen Lankford, and Osamu Honmou. His laboratory appears well-funded, supporting both basic science investigations and translational research efforts. The research team has developed several innovative surgical protocols and imaging techniques to study neurological recovery in animal models. Dr. Kocsis leads the postdoctoral training program within the Department of Neurology, mentoring the next generation of neuroscientists. His laboratory provides training opportunities for graduate students, postdoctoral fellows, and clinical researchers interested in neural repair and regeneration.
Edward Chang serves as Chair of the Department of Neurological Surgery at the University of California, San Francisco (UCSF), where he is a Professor specializing in surgical therapies for epilepsy, brain tumors, and trigeminal neuralgia. His expertise centers on advanced neurophysiologic brain mapping to preserve speech and motor function during neurosurgical procedures, significantly impacting clinical outcomes for patients with complex neurological conditions. His educational foundation includes: BA in Amherst College (1997) MD from UCSF (2004) Neurosurgery Residency at UCSF (2004-2010) Fellowship in Cognitive Neurophysiology at UC Berkeley's Helen Wills Neuroscience Institute (2008-2009) Chang's research pioneers the intersection of neurosurgery and neural engineering, with primary focus on speech neuroprosthetics, brain tumor heterogeneity, and intracranial biomarker development. His team employs electrophysiological mapping, machine learning, and neurostimulation to decode neural activity for communication restoration in paralyzed patients and optimize surgical approaches for epilepsy and gliomas. This work bridges fundamental neuroscience with transformative clinical applications. Analysis of his 2025 publications reveals dominant themes in speech decoding neuroprosthetics (including multilingual systems and avatar control), glioma molecular evolution, and closed-loop deep brain stimulation for depression/OCD. These studies leverage high-density intracranial recordings to identify personalized neural biomarkers, demonstrating a clear trajectory toward individualized neuromodulation therapies and real-time brain-computer interfaces. His scientific recognition includes: Member of the National Academy of Medicine (2020) Blavatnik National Award Laureate in Life Sciences (2015) Bowes Biomedical Investigator (2018) NIH New Director's Innovation Award (2011-2016) New York Stem Cell Foundation Robertson Investigator (2015-2020) Klingenstein Fellowship Award (2011) Pathway to Independence Award (2009-2013) Alpha Omega Alpha (2003) UCSF Dean's Prize for Research (2004) Young Investigator Award from Grass Foundation-American Epilepsy Society (2011) Chang directs substantial NIH-funded research programs including the BRAIN Initiative opportunities, with grants spanning neural decoding (DP2), stem cell applications, and depression biomarker development. While specific advisees aren't listed in source materials, he mentors surgical residents and fellows within UCSF's neurological surgery program. His clinical team at UCSF specializes in comprehensive brain tumor care and epilepsy surgery, integrating cutting-edge research with patient treatment protocols. The Chang Lab operates at the forefront of translational neuroscience, maintaining active projects in speech neuroprosthetics (including the high-performance system published in Nature 2024), closed-loop DBS for psychiatric disorders, and molecular profiling of glioma progression. Current initiatives focus on scaling brain-computer interfaces for clinical deployment and developing personalized stimulation targets using stereoencephalography data.
