Find Academic Supervisors

• Marine Hydrokinetic Energy
• Oceanography
• Western Boundary Currents
• +3 more

Michael Muglia is a Research Professor at East Carolina University's Coastal Studies Institute and Assistant Director of Science for the NC Ocean Energy Program. He holds a joint appointment at the National Renewable Energy Laboratory (NREL). His expertise spans oceanography, renewable energy systems, and marine technology. Muglia earned three B.S. degrees (Biology, Marine Science, Physics) from the University of Miami and UNC Wilmington, followed by an M.S. in Physics from UNC Chapel Hill and a Ph.D. in Marine Science from UNC Chapel Hill. His research focuses on western boundary currents like the Gulf Stream, shelf-ocean exchange dynamics, and marine renewable energy solutions. He has pioneered underwater kite systems, wave energy converters, and turbine technologies, supported by funding from DARPA, DOE, and NREL. Collaborators include institutions like Woods Hole Oceanographic Institution and Scripps Institution of Oceanography. Muglia has led over 20 grants totaling millions in funding, including projects on Gulf Stream energy characterization and ocean observation systems. He chairs SECOORA's Science Advisory Board and has received the Distinguished Scholar (2025) and Cleantech Innovation (2023) awards. Key contributions include HF radar analysis of Gulf Stream variability, shelf water cascading events near Cape Hatteras, and deployment of energy harvesting prototypes. His work bridges oceanographic research with practical renewable energy solutions, advancing grid-scale ocean power systems.

Antonio FerramoscaView profile

Professor

• Model Predictive Control
• Artificial Pancreas
• Distributed Control
• +7 more

Antonio Ferramosca is a Full Professor at the University of Bergamo's Department of Management, Information, and Production Engineering. His expertise spans Model Predictive Control (MPC), Artificial Pancreas systems, distributed control, and epidemiological modeling. He holds a Ph.D. from the University of Seville, with postdoctoral research at CONICET (Argentina) and visiting positions at the University of Wisconsin-Madison and the University of Seville. Education: Bachelor's and Master's in Computer Science Engineering (University of Pavia, 2004-2006) Ph.D. in Engineering (University of Seville, 2011) Research focuses on MPC applications in biomedical systems, energy systems, and robotics. He has pioneered techniques for handling circadian variability in insulin sensitivity and optimizing social distancing in SIR epidemiological models. His work integrates AI and machine learning for predictive maintenance and material design. Key awards include the Best Conference Paper Award at the 2022 IFAC CAO conference. Over 90 publications span journals like Automatica , IEEE Transactions , and conferences like ICUAS and LARS. He teaches advanced control courses, including Model Predictive Control fundamentals at the PhD level. His research groups collaborate internationally, addressing challenges in microgrid energy management, obstacle-avoidance robotics, and personalized medical device design.

Alexander N. HananiaView profile

Assistant Professor

• Head and Neck Cancers
• Thoracic Cancers
• Gastrointestinal Cancers
• +3 more

Alexander N. Hanania, MD MPH, is the Clinical Director of Radiation Oncology at the Smith J. Evans and Mary P. Attwell Radiation Therapy Center and an Assistant Professor (tenure track) in the Department of Radiation Oncology at Baylor College of Medicine. He is affiliated with the Dan L. Duncan Cancer Center and Harris Health System. His clinical and research focus includes head and neck, thoracic, and gastrointestinal cancers, with expertise in radiomics, brachytherapy, and radiation therapy optimization. He has been recognized with awards such as the Early Career Faculty Award (2023) and the Roentgen Resident/Fellow Research Award (2019). Dr. Hanania holds a BS from Baylor University, an MD from the University of Texas Medical School at Houston, and an MPH in Biostatistics/Epidemiology from the University of Texas School of Public Health. His research emphasizes minimizing radiation toxicities, predictive biomarkers, and improving radiation oncology workflows. His articles span topics like brachytherapy response prediction, SBRT outcomes in underserved populations, and MRI-based dosimetry. Awards: Early Career Faculty Award, Educator of the Year (2022-23), Roentgen Resident Award (2019), Alpha Omega Alpha (2015). Professional Interests: Radiation therapy protocols, health disparities, and oncology innovation. Labs/Teams: Smith J. Evans Radiation Therapy Center, Dan L. Duncan Cancer Center. His publications highlight advancements in radiation oncology, including 3D-printed medical devices for brachytherapy and interobserver variability studies in dosimetry. Dr. Hanania advocates for equitable care access in safety-net systems.

Michael PhilenView profile

Professor

• Adaptive Structures
• Smart Materials
• Structural Dynamics and Control
• +5 more

Professor Michael Philen is a Professor and Assistant Department Head for Laboratory Facilities in the Kevin T. Crofton Department of Aerospace and Ocean Engineering at Virginia Polytechnic Institute and State University . He directs the Aerospace Structures and Materials Laboratory (ASML) and is a core member of the Center for Research and Engineering in Aero/Hydrodynamic Technologies (CREATe) . Education Ph.D. Mechanical Engineering, The Pennsylvania State University, 2006 M.S. Mechanical Engineering, The Pennsylvania State University, 2005 B.S. Mechanical Engineering, Texas A&M University, 1998 Research Interests Professor Philen’s research centers on adaptive structures and smart materials . He investigates how advanced actuator and sensor technologies—such as piezoelectrics, shape-memory alloys, magnetorheological fluids, and fluidic flexible matrix composites—can be integrated to create intelligent systems that adapt to external stimuli. His work spans morphing aircraft control surfaces , prosthetic sockets with adaptive fit , energy-harvesting composites , structural health monitoring , and variable-stiffness structures . Recent publications (2020–2024) demonstrate a strong emphasis on translating fundamental material science into practical biomedical and aerospace devices, with particular attention to experimental validation and multi-scale modeling. The body of work evidences a trend toward multifunctional composites that simultaneously provide structure, sensing, actuation, and energy harvesting. Honors & Awards 2020 Dean's Award for Excellence in Service 2015 AIAA Associate Fellow 2011 Dean’s Award for Excellence in Teaching 2010 Dean’s Award for Outstanding New Assistant Professor 2009 ASME Adaptive Structures and Material Systems Best Paper Award in Structural Dynamics and Control 2008–2009 Certificate of Teaching Excellence 2008 Ralph E. Powe Junior Faculty Enhancement Award (ORAU) 2008 Air Force Summer Faculty Fellowship 1998–2006 Eastman Kodak Research Fellow Service, Grants & Labs Professor Philen has served as Chair (2020–present) of the ASME Aerospace Division Adaptive Structures and Material Systems Branch Committee, and as General Chair of the 2016 ASME SMASIS Conference . He is an Associate Editor for the Journal of Intelligent Material Systems and Structures and Smart Materials and Structures , and has held numerous guest-editor roles for special issues in these journals. He directs the Aerospace Structures and Materials Laboratory (ASML) at Virginia Tech, a facility dedicated to advanced diagnostics, experimental testing, and development of adaptive structures and smart materials. ASML houses capabilities for structural dynamics, control testing, and characterization of multifunctional composites.

Robert LodderView profile

Professor

• Pharmaceutical Quality Control
• Near-Infrared Spectroscopy
• Drug Formulation Development
• +4 more

Robert Lodder is a Professor in the Department of Pharmaceutical Sciences at the University of Kentucky, affiliated with the Stanley and Karen Pigman College of Engineering. His research focuses on pharmaceutical quality control, near-infrared spectroscopy, drug formulation development, and biomedical engineering applications. He leads efforts to improve drug manufacturing processes and ensure pharmaceutical product quality through advanced analytical techniques. His work bridges engineering principles with clinical pharmacy, addressing critical issues such as content uniformity in drugs, process analytical technology (PAT), and detection of manufacturing defects. Lodder has pioneered applications of near-infrared (NIR) spectrometry for rapid drug screening, including antibiotics, antineoplastics, and biologics. He also investigates atherosclerosis mechanisms using non-invasive spectroscopic methods, contributing to cardiovascular disease research. Lodder's publications emphasize real-time pharmaceutical monitoring systems, counterfeit drug detection, and regulatory science innovations. His interdisciplinary approach integrates data-driven methodologies with medical and engineering challenges, such as developing novel statistical techniques for weak signal detection in drug quality assessment. Though no awards are listed here, his contributions to pharmaceutical quality assurance and spectroscopic methodologies suggest significant recognition in academic and industry circles. He collaborates on device development for medical interventions, including implantable sensors and tamper-resistant pill technologies. Lodder's research also extends to public health initiatives, such as establishing sentinel networks for drug quality surveillance.

• Cardiology
• Emergency Medicine
• Resuscitation Science
• +4 more

Kristian Bundgaard Ringgren is a Physician Scientist at Aalborg University Hospital, affiliated with the Faculty of Medicine's Department of Anaesthesiology and Intensive Care. He maintains an active research profile with numerous publications focusing on out-of-hospital cardiac arrest and emergency medical response systems. Dr. Ringgren's primary research interests center on out-of-hospital cardiac arrest , defibrillation protocols , survival analysis , and emergency medical services optimization . His work frequently utilizes data from the Danish Cardiac Arrest Registry to investigate factors affecting patient outcomes, including geographic disparities, sex differences, and the impact of bystander interventions. His research has important implications for public health policy and emergency response systems. Analysis of Dr. Ringgren's publication trends shows a consistent focus on improving cardiac arrest outcomes through registry-based research. His recent work has examined geospatial prediction models for cardiac arrests, sex differences in outcomes, and the impact of emergency response times on survival rates. Much of his research has direct applications for optimizing public access defibrillator placement and improving emergency medical services protocols. Dr. Ringgren has been featured in multiple press and media outlets discussing cardiac arrest survival rates, public access defibrillators, and regional healthcare disparities. His research has been covered in both national and regional Danish media, highlighting the practical implications of his work for public health policy. His collaborative network spans multiple Danish institutions, with frequent co-authorship with researchers from the Danish Cardiac Arrest Registry. Dr. Ringgren's work often involves large-scale observational studies using nationwide registry data, contributing to evidence-based improvements in cardiac arrest response systems across Denmark. Dr. Ringgren is actively involved in public health initiatives related to cardiac arrest response, particularly in the Nordjylland region where he has contributed to strategic placement of automated external defibrillators based on risk analysis. His work bridges clinical practice, research, and public health implementation.

Jeremy CrenshawView profile

Associate Professor

• Biomechanics
• Gerontology
• Neurorehabilitation
• +3 more

Jeremy Crenshaw is an Associate Professor in the Department of Kinesiology & Applied Physiology at the University of Delaware's College of Health Sciences. His research focuses on enhancing mobility and reducing fall risks in vulnerable populations through biomechanical and clinical interventions. He leads the Falls and Mobility Research Laboratory, dedicated to improving stability and physical activity in older adults, stroke survivors, individuals with cerebral palsy, and amputees. Education: B.S. in Exercise Science, Truman State University (2003) M.S. in Exercise Science, University of Delaware (2007) Ph.D. in Movement Sciences, University of Illinois at Chicago (2011) Postdoctoral Research Fellowship in Rehabilitation Research, Mayo Clinic (2014) Research Interests: Biomechanical analyses of walking and balance reactions to perturbations Development of clinical and biomechanical measures for stability assessment Exercise interventions targeting mobility impairments in chronic conditions Translation of basic stability research into applied clinical strategies Recent studies explore neuromechanical responses to anticipation, orthotic device efficacy, and gait variability in aging populations. Scientific Awards: 2013: Orthopedic Research Fellows Kelly Award (Mayo Clinic) 2006: Outstanding Graduate Student in Exercise Science (University of Delaware) 2003: Departmental Honors (Truman State University) Advising & Grants: No formal advisees or grant details are listed. He teaches KAAP 400: Research Methods and directs the Falls and Mobility Lab, likely involving student mentorship and funded projects. Labs & Teams: Director of the Falls and Mobility Research Laboratory at UD, focusing on interdisciplinary approaches to mobility impairments, wearable sensor technology, and biomechanical interventions. The lab's work addresses fall risk reduction and gait restoration in clinical populations.

Todd D. RoyerView profile

Associate Professor

• Biomechanics
• Gait Energetics
• Amputee Locomotion
• +2 more

Dr. Todd D. Royer is an Associate Professor in the Department of Kinesiology and Applied Physiology at the University of Delaware's College of Health Sciences. He teaches undergraduate and graduate courses including Biomechanics of Human Motion (KAAP 425), Biomechanics I (KAAP 426), Seminar in Biomechanics (KAAP 687), and Electromyographic Kinesiology (KAAP 688). His office is located in the Health Sciences Complex. Education: Dr. Royer holds the following degrees: Ph.D. from Arizona State University (1999) M.S. from the University of Delaware (1993) B.S. from Pennsylvania State University (1987) Research Focus: His research investigates biomechanical adaptations in human movement, with emphasis on gait energetics, amputee locomotion, and knee osteoarthritis interventions. His work examines neuromuscular control strategies, joint loading dynamics, and therapeutic approaches for musculoskeletal pathologies. Current projects explore the efficacy of orthotic devices, asymmetrical movement patterns, and sport-specific biomechanics in athletic populations. Publication Trends: Dr. Royer's recent articles (2010-2015) demonstrate a consistent focus on lower-extremity biomechanics. Key themes include: neuromuscular responses to perturbations, osteoarthritis intervention strategies, athletic performance analysis (particularly in throwing and running), and diagnostic methods for ankle/knee pathologies. His work integrates motion capture, pressure mapping, and clinical assessments to address functional mobility challenges.

Hari BharadwajView profile

Assistant Professor

• Auditory Neuroscience
• Sensorineural Hearing Loss
• Cochlear Implants
• +6 more

Hari Bharadwaj is an Assistant Professor in the Department of Communication Science and Disorders at the University of Pittsburgh. He directs the Systems Neuroscience of Auditory Perception Lab (SNAPlab), focusing on understanding how auditory systems process sound in complex environments. His research integrates clinical audiology, neuroscience, and engineering to improve diagnostics and assistive technologies like hearing aids and cochlear implants. Dr. Bharadwaj holds a PhD in Biomedical Engineering from Boston University, with earlier training in Electrical and Biomedical Engineering at the University of Michigan and Indian Institute of Technology Madras. His work spans auditory neuroscience, sensorineural hearing loss mechanisms, and neuroplasticity. Key contributions include identifying cochlear neural damage in 'normal hearing' individuals and developing web-based hearing screening tools. He has secured funding from NIH, NSF, Department of Defense, and Hearing Health Foundation. Dr. Bharadwaj emphasizes interdisciplinary training, mentoring students from audiology, engineering, psychology, and neuroscience backgrounds. Notable achievements include the 2018 Early Career Research Award from ASHA and multiple teaching awards from Purdue University (2018-2019). He serves as Associate Editor for the Journal of the Acoustical Society of America. Current research explores precision diagnostics for hearing loss and neural coding deficits in autism spectrum disorders.

Toon HuysmansView profile

Assistant Professor

• Digital Human Modeling
• Physical Ergonomics
• 3D Anthropometry
• +5 more

Dr. Toon Huysmans is an Assistant Professor at the Department of Industrial Design, Faculty of Industrial Design Engineering, Delft University of Technology. He specializes in digital human modeling, ergonomics, and 3D anthropometry, applying these to product design, healthcare, and sports equipment. His research focuses on creating personalized solutions through advanced technologies like 3D scanning, AI, and statistical shape modeling. Education: PhD in Sciences (2009), University of Antwerp Master and Bachelor in Computer Science (2003/2001), University of Antwerp Research Interests: His work bridges engineering and design, emphasizing human-centric approaches. Key areas include ergonomic product development, PPE design, and biometric data analysis for safety and comfort. Recent projects involve 3D facial anthropometry for protective gear and dynamic foot modeling for orthotics. Media & Outreach: Featured in NOS, BNR, and other outlets for studies on children’s anthropometry and helmet design. Leads initiatives to improve EU safety standards through 3D body scanning projects. Collaborations: Involved in labs such as the Center of Design for Advanced Manufacturing (CDAM) and the Physical and Ergonomics Lab. Teaches courses on Biomechanics and Human Factors.

• Hypertension Management
• Cardiovascular Research
• Health Services Adaptation
• +3 more

Niamh Chapman is a Senior Research Fellow at the University of Sydney's School of Health Sciences within the Faculty of Medicine and Health. She leads the People and Systems Hypertension Research team, focusing on improving hypertension management through healthcare service adaptations. Her work emphasizes culturally sensitive approaches for diverse populations and advancing cardiovascular research leadership. Her research spans hypertension measurement standards, telehealth applications, and workforce sustainability. Key roles include chairing committees for the Australian Cardiovascular Alliance and International Society of Hypertension, highlighting her leadership in global hypertension initiatives. Dr. Chapman has secured grants from NSW Health, the National Heart Foundation, and the Foundation for High Blood Pressure Research, supporting projects like pharmacist-led blood pressure education and healthcare system readiness assessments. Her publications address guideline adherence, patient education gaps, and technology-driven solutions in cardiovascular care. She advises Gautam Satheesh on team-based hypertension care evaluation. Current projects include adapting hypertension support for culturally diverse communities and evaluating wearable devices in primary care. Dr. Chapman's work intersects clinical practice, policy, and innovation, with a focus on equitable hypertension management and sustaining cardiovascular research capacity in Australia.

Jens-Dominik MuellerView profile

Professor

• Computational Fluid Dynamics
• Numerical Optimization
• Shape Optimization
• +7 more

Dr. Jens-Dominik Mueller is a Professor in Computational Fluid Dynamics and Optimization at Queen Mary University of London (QMUL), within the School of Engineering and Materials Science. He holds roles as SEMS Academic Misconduct Officer, Head of the Professional Bodies Liaison Group, and Education Lead for the Centre for Intelligent Transport. His research focuses on adjoint methods, CAD-based shape optimization, and data-driven modeling, with applications in aerospace, biofluids, and energy systems. He has secured significant industrial and EU grants, including Horizon 2020 funding for projects like IODA and MADDOG. Education : - PhD (Aerospace Engineering, University of Michigan, 1996) - MSc (Aerospace Engineering, Von Karman Institute, 1990) - Dipl-Ing (Mechanical Engineering, Technical University of Munich, 1989). Research Interests : Development of multi-disciplinary modeling chains using adjoint sensitivity analysis, CAD integration in design optimization, and turbulence modeling. His work applies automatic differentiation tools to link CAD to objective functions, enabling robust optimization of complex systems like turbine blades and biomedical devices. Grants and Funding : Computational methods for active flow control (€179,947, EU Horizon 2020) MHI2: Mixing plane and nozzle vane design (€186,258, Mitsubishi Heavy Industries) CAD-based wing optimization for Airbus (€27,000, Airbus Defense & Space) MADDOG: Turbine design optimization (€127,046, EU Horizon 2020) Advising and Labs : Leads a research group focusing on adjoint-based optimization. Current projects include CAD-based wing-body junction optimization and LES-aided shape parametrization. Collaborates with industrial partners like Rolls-Royce and Airbus. Affiliations : Member of the editorial board of Aerospace , ASMO-UK, and the UK Fluids Network's Special Interest Group on Numerical Optimization in Fluid Dynamics.

Tamara Reid BushView profile

Professor

• Biomedical Engineering
• Mechanics of Seating
• Hand Function
• +6 more

Tamara Reid Bush is a Professor in the Department of Mechanical Engineering and the Associate Dean for Inclusion and Diversity in the College of Engineering at Michigan State University (MSU). She holds adjunct roles in Biomedical Engineering and directs the Biomechanical Design Research Laboratory. Her research focuses on biomedical engineering applications, including seating mechanics, hand function analysis, musculoskeletal dysfunction, and pressure ulcer prevention. Education: Ph.D., M.S., and B.S. in Mechanical Engineering, all from Michigan State University. Research interests span biomechanical design, soft tissue mechanics, medical device development, and ergonomics. Her work bridges engineering principles with clinical applications, addressing challenges in rehabilitation, aging, and disability. Notable projects include automated seated repositioning systems, ergonomic package redesign, and studies on thumb mobility in osteoarthritis patients. Awards include the AIMBE Fellowship (2021), American Society of Biomechanics Founder's Award (2020), and recognition as a National Academy of Engineering Frontiers of Engineering Education participant (2013). She has served on editorial boards and leadership roles in ASME and the American Society of Biomechanics. Teaching includes courses like Statics (ME221), Dynamics (ME361), and Biomechanical Design (ME497). She advises over 50 graduate and undergraduate students, fostering innovation through projects like pediatric rehabilitation exercisers and prosthetic socket improvements. Her lab’s projects include helmet plug design for MSU football, automated repositioning systems, and accessibility improvements for transportation. Funding and donations support ongoing research and development initiatives.

• Sleep Medicine
• Neuroscience
• Biomedical Engineering
• +3 more

Merel van Gilst is an Assistant Professor in the Department of Electrical Engineering at Eindhoven University of Technology (TU/e). She leads the Advanced Sleep Monitoring Group within the Signal Processing Systems research group and collaborates with the Sleep Expertise Center Kempenhaeghe. Her work bridges technical sleep monitoring device development with clinical applications, focusing on sleep disorders and the clinical validation of new technologies. She established the SOMNIA database, integrating polysomnography with experimental modalities in routine patient care. Education: PhD in Neurology from Radboud University Medical Center (2016), Postdoc at TU/e and Kempenhaeghe (2016). Certified Somnologist via European Society of Sleep Research (2017). Undergraduate in Cognitive Artificial Intelligence & Neuroscience at Utrecht University (2011). Research Interests: Clinical sleep technology, sleep stage classification, wearable devices for sleep monitoring, circadian rhythm adaptation, and sleep disorder diagnostics. Her research emphasizes translating technical innovations into clinical practice for conditions like obstructive sleep apnea and insomnia. Grants & Projects: Involved in initiatives including MEDEIA (medical engineering innovations), MEDUSA (medical data utilization), and OP-SLEEP (EEG patch development). Supported by grants from TKI-HTSM, Philips, and Dutch Ministry of Economic Affairs. Labs/Teams: Member of the Biomedical Diagnostics Lab, Eindhoven MedTech Innovation Center (e/MTIC), and Signal Processing Systems group. Active in cross-disciplinary collaborations between TU/e, Philips, and clinical partners.

Venkatasubraman Kalpathy VenkiteswaranView profile

Assistant Professor

• Robotics
• Soft Robotics
• Medical Devices
• +3 more

Venkatasubraman Kalpathy Venkiteswaran is an Assistant Professor in the Biomedical Device Design and Production Technology field. His research focuses on soft robotics , magnetic actuation , and biomedical applications . He explores topics such as variable stiffness mechanisms, medical devices, and biomimetic systems. He has contributed to advancements in magnetic soft robots, including multi-layer printing techniques and adaptive locomotion systems. His work integrates materials science with robotics, emphasizing applications in healthcare and minimally invasive interventions. Collaborations span global institutions, reflecting his interdisciplinary approach. Notable research includes the APOLLO project for endovascular interventions and fin-wave-inspired amphibious robots. His publications highlight innovations in actuation, modeling, and material design for robotic systems.