Find Academic Supervisors

Ann SwartzView profile

Professor

• Physical Activity
• Sedentary Behavior
• Health Interventions
• +4 more

Dr. Ann Swartz is a tenured Professor in the Department of Kinesiology at the University of Wisconsin-Milwaukee. Her research program investigates the health impacts of physical activity and sedentary behavior across diverse populations including aging adults, schoolchildren, and individuals with chronic conditions. PhD in Exercise Physiology (University of Tennessee) MS in Exercise Science (Ball State University) BS in Kinesiology (University of Wisconsin-Madison) Her research focuses on: Linking physical activity patterns to metabolic and cardiometabolic health Developing novel assessment methodologies for activity monitoring Designing interventions to reduce sedentary behavior Examining mobility limitations in aging and disabled populations Recent publications emphasize wearable technology validation, sedentary behavior interventions, and functional assessment in aging adults. She has received multiple research awards including the European Journal of Sport Sciences Best Paper Award and has been recognized for her methodological contributions to activity measurement. KIN 330: Exercise Physiology KIN 530: Physiology of Performance KIN 531: Clinical Exercise Physiology KIN 532: Electrocardiography Interpretation KIN 930: Seminar in Exercise Physiology

• Muscle Metabolism
• Insulin Resistance
• Diabetes Research
• +11 more

Dr. Richard Mackenzie is a Reader in Insulin Resistance & Metabolism at the School of Life and Health Sciences, University of Roehampton , where he also serves as Research Director for the Sport & Exercise Science Research Group. He previously held a Senior Lecturer position at the University of Westminster (2008-2015) and was a Research Physiologist at the University of Brighton (2005-2008). His research focuses on metabolic regulation in health and disease states, particularly type 2 diabetes and elite athlete physiology. Dr. Mackenzie's work explores: Muscle metabolism in health, obesity, and diabetes Role of obesity in insulin resistance and metabolic disease Hematological and muscular adaptations to acute hypoxia Akt/PKB inhibition via IP6K1 and IP7 in insulin signaling Myostatin signaling and skeletal muscle protein turnover His peer-reviewed publications examine topics ranging from hypoxia-induced metabolic changes to dietary interventions for glucose homeostasis. Dr. Mackenzie also engages in media appearances (BBC Radio 4, Horizon documentaries) and consultancy work for metabolic device development (e.g., Mediwise glucose-monitoring technology).

Inês M.A. RibeiroView profile

Researcher

• Neurogenetics
• Behavioral Neuroscience
• Sensory Processing
• +3 more

Inês M.A. Ribeiro is a Researcher and Group Leader at the Institute of Medical Psychology, Ludwig Maximilian University of Munich (LMU Munich), focusing on neurogenetics and behavior in Drosophila melanogaster. Her work integrates molecular genetics, sensory processing, and neural circuits to study social behaviors like courtship and aggression. Current research explores how visual cues and internal states influence neural circuits governing social interactions. She employs optogenetics, functional imaging, and behavioral assays to dissect sensory-motor transformations in fruit flies. Her lab emphasizes training students for STEM careers, reflecting her commitment to education and mentorship. The lab's publications highlight interdisciplinary approaches bridging neuroscience, molecular biology, and developmental studies, particularly in sensory integration and neural circuit dynamics. Students and collaborators are actively involved in advancing these research themes.

Ashleigh DindView profile

Academic

• Cardiology
• Cardiac Imaging
• Echocardiography
• +3 more

Dr Ashleigh Dind is an Honorary Clinical Lecturer at the Australian National University (ANU) School of Medicine and Psychology and a practicing Clinical Cardiologist at Sydney Adventist Hospital and Hornsby Cardiac Diagnostic Unit. She holds additional appointments as an Honorary Medical Officer and researcher at Royal North Shore Hospital and Royal Prince Alfred Hospital. Graduated with MBBS (Hons) from UNSW and became a Fellow of the Royal Australasian College of Physicians (FRACP) Subspecialty training in Cardiology Imaging at Prince of Wales Hospital and Specialist MRI Her research focuses on differentiating myocarditis from infarction using advanced imaging techniques like echocardiography and MRI . She is also a dedicated medical educator, founding the HEART Course for Cardiology Trainees in 2021 and serving as an honorary clinical tutor for ANU students. Dr Dind received a Heart Research Australia grant in 2022 to develop innovative diagnostic software for subclinical heart muscle abnormalities. Her work emphasizes non-invasive diagnostics and improving health outcomes through interdisciplinary research and education.

• Multifunctional Materials
• Multifunctional Composites
• Graphene-based Composites
• +12 more

Dr. Nisa Salim is a Senior Lecturer at the School of Engineering, Swinburne University of Technology , where she conducts pioneering research in multifunctional composite materials, smart coatings, and sustainable energy technologies. Her work is aligned with national and global priorities in space technology, clean energy, and circular economy. Institution: Swinburne University of Technology School: School of Engineering Academic Rank: Senior Lecturer Email: nsalim@swin.edu.au ORCID: 0000-0001-8069-8039 Dr. Salim’s research focuses on developing smart, engineered materials that can sense, actuate, and store energy. Her key areas include graphene-based composites, structural health monitoring, hydrogen storage, and digitalization of composite manufacturing. She leverages advanced nanomaterials to create next-generation composites for aerospace, marine, robotics, and energy applications. The recent publications highlight a strong trend in multifunctional materials, particularly in energy storage (supercapacitors, hydrogen), smart sensing (graphene sensors, digital twins), and sustainable composites (biomass-derived carbon, recycled polymers). Her work integrates machine learning, IoT, and Industry 4.0 principles into material design and manufacturing processes. Scientific Awards and Recognition Alexander von Humboldt Fellowship Philip Law Award, Royal Society of Victoria Theo Murphy Award, Australian Academy of Science Alfred Deakin Post-Doctoral Fellowship Victoria Fellowship Endeavour Research Fellowship AINSE Gold Medal for PhD Excellence University Ambassador, Royal Australian Chemical Institute Dr. Salim actively supervises PhD and master’s students in cutting-edge projects related to hydrogen storage, lunar dust mitigation, structural batteries, and smart coatings. She has secured multiple competitive grants from ARC, CSIRO, and industry partners, including projects on Scalable Graphene Enabled Smart Composites and Passive Lunar Dust Mitigation . Her editorial roles include serving on the boards of Chemical Engineering Journal , Polymers , and Journal of Composites Science . She leads research in advanced labs focused on composite manufacturing, nanomaterial synthesis, and smart sensor integration, often in collaboration with CSIRO, University of Melbourne, and international institutions. Her vision is to develop living materials that enable digitalization and IoT integration in engineering systems.

• Assistive Technologies
• Health Informatics
• Biomedical Engineering
• +7 more

Dr. Andreu Català Mallofré is a Full Professor at the Universitat Politècnica de Catalunya (UPC), affiliated with the Department of Systems, Automatic and Industrial Informatics Engineering. He serves as the principal investigator at the CETpD - Centre d'Estudis Tecnològics per a l'Atenció a la Dependència i la Vida Autònoma (Technical Research Center for Dependency Care and Autonomous Living) and leads the TOC - Tecnologia Orientada a la Comunitat (Community-Oriented Technology) research group. With an academic career spanning over 30 years, he specializes in assistive technologies, human-computer interaction, and biomedical data analysis. His research interests focus on Wearable health monitoring systems Parkinson's disease management solutions Frailty assessment algorithms Emotion-driven computing Community-embedded technology Gerontechnology applications These areas have produced 367 academic outputs including 59 indexed journal articles, 148 conference papers, and 66 competitive R&D projects. Recent publications demonstrate a clear trend toward multimodal health monitoring combining inertial sensors with biometric data for aging populations . Key application areas include freezing-of-gait detection in Parkinson's patients and distress estimation during assisted mobility. His 2024 work explores agricultural sustainability through data-driven fertilizer optimization. Scientific recognition includes UPC Social Council Award (2013) 20+ years as conference committee member Multiple competitive R&D grants 23391773000 Scopus ID Orcid 0000-0001-8775-1955 As academic advisor, he has mentored 3 PhD candidates including Daniel Manuel Rodriguez-Martin (Human Movement Analysis, 2020) Leonid Ivonin (Physiological Signal Processing, 2014) John Neal Abram Brown (Calm Computing, 2014) His teams operate within Vilanova i la Geltrú's School of Engineering, with strong industry and healthcare sector collaborations.

• Physical Education
• Sport Psychology
• Secondary Education Psychology
• +3 more

Josep Solà Santesmases is a Researcher at the Department of Physical Activity and Sport Sciences and Sports Management, Faculty of Psychology, Educational Sciences and Sports Blanquerna, Universitat Ramon Llull. His research focuses on physical education, sport psychology, and the intersection of education and sports in secondary and higher education contexts. He has contributed to projects such as engAGE (intergenerational intervention using immersive technology), PROMISE (support for women in basketball), and SAFE (health and physical activity initiatives). His work examines topics like agility trends in adolescents, service-learning practices in vulnerable populations, and curriculum design for physical education. Collaborations include studies on muscle rehabilitation and tactical analysis in sports. He has published extensively in peer-reviewed journals, with a focus on applying scientific methods to improve educational and athletic outcomes. Notable projects include leading studies on dual career management for high-level athletes and analyzing the transversality of educational content in physical education curricula. His research often bridges practical applications with theoretical frameworks in sports science and pedagogy.

Silvia Salinas BlemkerView profile

Professor

• Biomechanics
• Musculoskeletal Diseases
• Multi-scale Modeling
• +5 more

Dr. Silvia Salinas Blemker is a Professor of Biomedical Engineering at the University of Virginia, with a courtesy appointment in Mechanical and Aerospace Engineering. Her research focuses on understanding muscle structure-function relationships through computational and experimental models to develop treatments for musculoskeletal diseases. She earned her undergraduate and Master’s degrees in Biomedical Engineering from Northwestern University and a PhD in Mechanical Engineering from Stanford University. Her Multiscale Muscle Mechanophysiology (M3) Lab investigates skeletal muscle mechanics, regeneration, and disease mechanisms, particularly in conditions like muscular dystrophy and aging. The lab’s work integrates AI-driven MRI analysis, finite element modeling, and clinical collaborations to improve patient outcomes. Key projects include developing the FDA-approved Springbok Analytics tool for muscle health assessment and advancing understanding of muscle regeneration through agent-based modeling. Dr. Blemker has received prestigious awards such as the National Academy of Inventors Fellowship (2024) and the American Society of Biomechanics’ Goel Award (2024). She teaches courses in biomechanics and motion analysis. Her research has been featured in innovations like biomechanics-based injury prevention systems for athletes and novel imaging techniques for neuromuscular disease monitoring.

Antonis StylianouView profile

Associate Professor

• Computational Biomechanics
• Musculoskeletal Modeling
• Multibody Dynamics
• +3 more

Antonis Stylianou is an Associate Professor in the Department of Mechanical Engineering at the University of Missouri - Kansas City (UMKC). He holds a Ph.D. in Mechanical Engineering from the University of Kansas (2004), along with multiple master's degrees in Mathematics (2012) and Mechanical Engineering (2000), and a B.S. in Mechanical Engineering (1998). His primary affiliation is within the School of Science and Engineering, where he focuses on computational biomechanics, musculoskeletal modeling, and multibody dynamics. Dr. Stylianou's research emphasizes Elbow joint mechanics and ligament deficiency modeling Virtual surgical simulators for pelvic surgery error prevention Pediatric knee anatomy and ACL injury risk analysis Musculoskeletal models of human motion Finite element analysis of cartilage contact pressures His work bridges computational methods with clinical applications, including developing tools for orthopedic surgeons and training paradigms for surgical techniques. Recent studies have explored surgeon kinematics during retropubic trocar insertion and posteromedial rotatory incongruity of the elbow. Teaching responsibilities include advanced dynamics, biomechanics, and experimental methods courses. His contributions underscore the integration of engineering principles with medical challenges, particularly in orthopedic and surgical contexts.

Chris SmithView profile

Professor

• Alternative pre-mRNA splicing
• Vascular smooth muscle cells
• RNA-binding proteins
• +3 more

Chris Smith is a Professor in the Department of Biochemistry at the University of Cambridge, leading research on the mechanisms of regulated alternative pre-mRNA splicing. His work combines molecular, biochemical, and computational approaches to study splicing regulators in vascular smooth muscle cells and lymphoid systems. Key research focuses include the master regulator RBPMS, phosphorylation-driven splicing activity, and PTBP1's role in B cell selection. Research Interests: Mechanisms of alternative splicing regulation RBPMS's role in smooth muscle cell differentiation PTBP proteins in immune cell function Global splicing networks and regulatory interactions Collaborations include Sanjay Sinha (Cambridge Stem Cell Institute), Helle Jørgensen (Department of Medicine), and Martin Turner (Babraham Institute). The group investigates splicing's role in cell-specific phenotypes and disease relevance. Lab activities include transcriptomic, proteomic, and structural studies. Contact: cwjs1@cam.ac.uk

Jocelyn CôtéView profile

Professor

• RNA Biology
• Neurodevelopmental Disorders
• Neuromuscular Diseases
• +3 more

Jocelyn Côté is a Full Professor in the Department of Cellular and Molecular Medicine at the University of Ottawa, holding a concurrent role as Assistant Dean, Research and Special Projects in the Faculty of Medicine. His research focuses on the role of arginine methylation in RNA-binding proteins and its implications in neurodevelopmental disorders, neuromuscular diseases, and cancer. He leads studies on the molecular pathways underlying spinal muscular atrophy, myotonic dystrophy, and cancer progression, with particular emphasis on Tudor domain-containing proteins and PRMT enzymes. Education: B.Sc. Biochemistry (Université de Sherbrooke, 1992), Ph.D. Molecular Biology (Université de Sherbrooke, 1998), Postdoctoral Fellowships at Washington University and McGill. Research interests include: (1) arginine methylation regulation in RNA processing, (2) Tudor domain protein functions in disease, and (3) cancer-related epigenetic pathways. His work integrates cell biology, molecular genetics, and proteomics to identify novel therapeutic targets. Publications emphasize RNA biology and disease mechanisms, with recent work highlighting Staufen1's role in myotonic dystrophy and PRMT7's contribution to breast cancer metastasis. While no awards are explicitly listed, his research has implications for neuromuscular and oncological therapies. He collaborates with the Centre for Neuromuscular Diseases and the uOttawa Brain & Mind Research Institute, advancing translational research in neurodegenerative and neuromuscular disorders.

• Developmental Neurobiology
• Neurodegeneration
• Lab-on-Chip Technology
• +4 more

José Antonio Del Río Fernández is a distinguished Professor and Group Leader at the Institute for Bioengineering of Catalonia (IBEC) , where he directs the Molecular and Cellular Neurobiotechnology group. His work bridges developmental neurobiology , neurodegeneration , and lab-on-chip technology , focusing on diseases like Alzheimer's and Parkinson's . He has been active in academic research for over 30 years, previously affiliated with institutions such as the University of Barcelona , Frankfurt University , and Imperial College London . Education : PhD , University of Barcelona (1994) Research Interests center on neurodegenerative disease mechanisms , particularly the spreading of tau and α-synuclein in conditions like Alzheimer's and Parkinson's, and axon regeneration after CNS injury. His group pioneers lab-on-chip devices to model neurobiological processes and test regenerative therapies. Collaborations span institutions such as Imperial College , i3A, Zaragoza , and Biodonostia Hospital . Scientific Contributions include over 170 publications, with a H-index of 48 (Web of Science) and 55 (Google Scholar), and significant advancements in understanding prion protein interactions in neurodegeneration. His recent work explores optogenetics for axon regeneration and multitarget compounds for Alzheimer's therapy. He has mentored 24 PhD students , 26 Master's students , and 15 postdoctoral fellows , reflecting a strong commitment to academic training. Scientific Awards : Fundación Francisco Cobos CSIC Award (2001) Generalitat of Catalunya Award of Young Researcher (2003) Research Trends demonstrate a focus on neurodegenerative disease mechanisms , lab-on-chip platforms , and axon regeneration strategies . His collaborations with institutions like Imperial College London and University of Zaragoza highlight interdisciplinary approaches integrating biomaterials , optogenetics , and computational modeling .

Rachel M. BrewsterView profile

Professor

• Developmental Biology
• Neurobiology
• Cell Biology
• +6 more

Rachel M. Brewster is a Professor in the Department of Biological Sciences at the University of Maryland, Baltimore County (UMBC), where she conducts research on brain development and metabolism. Her work focuses on neural tube morphogenesis and cellular adaptation to hypoxia using zebrafish as a model organism. She is a key faculty member in the College of Natural and Mathematical Sciences and actively mentors undergraduate, Master’s, and PhD students in her lab. PhD, University of Michigan, 1996 BS, University of Geneva, 1989 Postdoctoral training: NYU and Carnegie Institution for Science Her research interests span developmental biology , neurobiology , cell biology , and metabolism , with a strong focus on hypoxia adaptation and neural tube defects . She investigates molecular mechanisms such as the reverse hinge point in neurulation and the role of NDRG1 in oxygen sensing and cellular protection. The recent publications highlight a strong trend in understanding how cells respond to low oxygen, regulate gene expression during anoxia, and maintain developmental integrity. Her work integrates transcriptomics , molecular signaling , and cellular morphogenesis , with a recurring emphasis on zebrafish models and vertebrate conservation . Her scientific contributions are supported by multiple NIH-funded grants, including projects on hypoxia adaptation, anoxia-induced cellular arrest, and increasing minority participation in biomedical sciences. While no formal awards are listed, her sustained funding and high-impact publications reflect significant recognition in her field. Dr. Brewster advises numerous students across levels and leads an active research lab focused on brain development. Her lab receives grant support from NIH/NIGMS and NIH/NICHD, focusing on mechanisms of suspended animation, neural tube formation, and metabolic adaptation. She is committed to inclusive science and education, particularly in supporting underrepresented minorities. She leads the Brewster Lab at UMBC, which investigates fundamental questions in neurulation and hypoxia tolerance. The lab uses zebrafish to study cellular and molecular mechanisms of brain development, with current projects centered on reverse hinge points and NDRG signaling pathways.

Marcel B. LanzaView profile

Assistant Professor

• Muscle activation
• Muscle structure
• Physical function
• +7 more

Marcel B. Lanza is an Assistant Professor at the Department of Physical Therapy and Rehabilitation Science, University of Maryland Baltimore. His work focuses on understanding how muscle physiology and biomechanics influence physical function in older adults and stroke survivors. Bachelor in Physical Education, Federal University of Acre, Brazil (2005) Specialization in Sports Training Methodology, IBEPEX, Brazil (2006) Master in Mechanical Engineering, Federal University of Minas Gerais, Brazil (2011) PhD in Sports, Exercise and Health Sciences, Loughborough University (2018) Postdoctoral Fellow, Federal University of Minas Gerais (2019) and University of Maryland Baltimore (2021) Research Associate at University of Maryland Baltimore (2023) Dr. Lanza's research examines neural and morphological mechanisms of force production, balance recovery, and fall prevention. His work combines biomechanical analysis with neuromuscular activation studies using surface EMG , high-density EMG , ultrasound , and magnetic resonance imaging . Recent publications emphasize muscle activation specificity, strength assessment methodologies, and functional performance in aging populations. His studies analyze hip muscle dynamics , torque development , and balance recovery mechanisms through experimental and systematic review approaches. Current work explores how exercise interventions modulate neuromuscular efficiency and muscle morphology in post-stroke rehabilitation and geriatric populations.

David KingstonView profile

Assistant Professor

• Biomechanics
• Gait Rehabilitation
• Pediatric Mobility
• +3 more

David Kingston, Ph.D., serves as Assistant Professor at the University of Nebraska at Omaha's College of Education, Health, and Human Sciences and directs the Movement Analysis Core Facility (MOVAN). MOVAN manages seven laboratory spaces in the Biomechanics Research Building, supporting UNO researchers and external partners including Children's Nebraska – Orthopedics and Fortune 500 robotic surgery company Intuitive Surgical Inc. His research centers on biomechanics with specialized focus on gait rehabilitation , pediatric mobility , and improving orthopedic surgical outcomes for lower limbs. Kingston employs advanced methodologies including 3D movement analysis, electromyography of muscle activation, and foot pressure distribution to address mobility challenges in children with neuromuscular disorders (particularly cerebral palsy) and persons with diabetes. His NIH-supported work pioneers data-driven rehabilitation protocols using both aquatic and conventional therapeutic environments to optimize clinical decision-making. Analysis of Kingston's recent publications reveals a dominant research trajectory in comparative gait mechanics across diverse populations. His work consistently examines environmental interactions (aquatic vs. land-based), device efficacy (knee walkers, biofeedback systems), and pathological conditions (cerebral palsy, stroke, diabetes). Key trends include the quantification of pelvic motion irregularities, plantar pressure adaptations during assistive device use, and validation of markerless motion capture systems for clinical applications - demonstrating clear translational impact for surgical planning and rehabilitation protocols. As Director of MOVAN, Kingston oversees a critical research infrastructure serving as Nebraska's biomechanics hub. The facility enables collaborative projects spanning pediatric orthopedics, diabetic mobility interventions, and robotic surgical development through partnerships with major healthcare providers and technology firms. His NIH-funded research program directly leverages this infrastructure to advance evidence-based rehabilitation practices.