Hailey Allen, MD is a Clinical Associate Professor in the Department of Radiology & Imaging Sciences at the University of Utah. She serves as the director for the Musculoskeletal Imaging fellowship at the University of Utah Hospital. Education: MD from Oregon Health & Sciences University, Residency in Diagnostic Radiology at the University of Wisconsin, Fellowship in Musculoskeletal Imaging at the University of Utah. Clinical Interests: Specializes in musculoskeletal radiology with focus on sports medicine, orthopedic oncology, musculoskeletal sonography, and peripheral neurography. Her recent publications span topics including bone tumors, knee ligaments, shoulder overuse injuries, and postoperative foot/ankle imaging. Key research areas: Sports Medicine Imaging, Orthopedic Oncology, Musculoskeletal Sonography, Diagnostic Imaging Protocols
Nicholas Dowell is Associate Professor in Imaging Physics (Clinical Neuroscience) at Brighton and Sussex Medical School (BSMS), based at the Clinical Imaging Sciences Centre (CISC). He is a member of the MRI Physics group and holds an active research and teaching profile in quantitative MRI and clinical neuroscience. His educational background includes a PhD in Solid-State Nuclear Magnetic Resonance spectroscopy from the University of Exeter (2004), following undergraduate studies in Chemistry at the same institution. Dr Dowell's research focuses on developing and applying advanced MRI techniques to study aging, dementia, inflammation, and neurological conditions like Multiple Sclerosis and Alzheimer’s disease. His work emphasizes non-invasive biomarkers derived from diffusion MRI, quantitative magnetization transfer, and MR pulse sequence design. Key research themes include blood-brain barrier integrity, neuroimmunometabolism, and functional hyperactivity in APOE ε4 carriers. The recent publications (2021–2025) reflect a strong trend in neuroimaging applications to neurodegenerative and psychiatric conditions, with increasing focus on the intersection of immunity, metabolism, and brain function. His work spans technical MRI development and clinical translation, particularly in aging, HIV-related depression, joint hypermobility syndromes, and early Alzheimer’s pathology. Scientific recognition includes being a Fellow of the Higher Education Academy. He has received competitive research funding from Alzheimer’s Research UK and the BBSRC. Dr Dowell is actively involved in teaching, delivering modules on Academic Skills, Quantitative MRI, Matlab programming, functional MRI, and clinical imaging physics. He supervises research but no specific students are listed. His research is conducted within the Clinical Imaging Sciences Centre, a multidisciplinary team focused on advancing MRI for clinical applications.
Claudio Luchinat is a Full Professor of Chemistry at the University of Florence, affiliated with the Department of Chemistry and the Magnetic Resonance Center (CERM). He co-founded CERM and currently leads the Interuniversity Consortium on Magnetic Resonance of Metalloproteins (CIRMMP). His research focuses on structural biology, paramagnetic NMR methodologies, and metabolomics. Notable contributions include integrating structural techniques (X-ray/NMR) for biomolecular accuracy, advancing Dynamic Nuclear Polarization (DNP) theory, and pioneering NMR-based metabolomics for disease biomarker discovery. Luchinat’s work spans metalloprotein studies, relaxometry applications, and MRI contrast agent development. He has been a key figure in metabolomics, publishing influential studies on Parkinson’s disease, cardiovascular risk, and cancer. His research bridges theoretical and applied domains, with global collaborations and invitations to international conferences as a keynote speaker. He holds roles as director of CERM and CIRMMP, and is recognized as a leading expert in structural and metabolic NMR. His lab develops novel statistical methods for metabolomics data analysis, emphasizing preanalytical standardization in multicenter studies.
Dennis Kramer is an Assistant Professor of Orthopedic Surgery at Harvard Medical School and an orthopedic surgeon at Boston Children's Hospital specializing in pediatric sports medicine. He serves as the Team Physician and Orthopedic Consultant for the University of Massachusetts at Boston and previously served as the head orthopedic team physician for the 2012 USA under-19 men's lacrosse team. Education: BA in Molecular Biology, Princeton University (1997) MD, New York University School of Medicine (2001) Residency in Orthopedic Surgery, Johns Hopkins University (2006) Fellowship in Pediatric Sports Medicine Surgery, Boston Children's Hospital (2006) Dr. Kramer specializes in knee, shoulder, and ankle injuries in children and young adults, with particular expertise in ACL injuries, patellar instability, meniscus tears, and pediatric fracture care. His research focuses on biomechanics, surgical outcomes, psychological aspects of recovery, and innovative techniques in pediatric sports medicine. As a former NCAA champion lacrosse player at Princeton, he brings a unique athlete's perspective to his clinical practice and understands the physical and emotional aspects of sports injuries. Dr. Kramer's research portfolio demonstrates a strong emphasis on evidence-based approaches to pediatric sports medicine, with numerous publications in top orthopedic journals. His work often involves large cohort studies and innovative methodologies including machine learning applications in predicting surgical outcomes. Certifications: American Board of Orthopedic Surgery (General) American Board of Orthopedic Surgery (Sports Medicine) Dr. Kramer maintains an active clinical practice focused on collaborative care with patients and families. He is involved in teaching medical personnel and peers, and serves on committees for national medical societies including POSNA, AAP, and AOSSM. His clinical philosophy emphasizes understanding the injury, discussing treatment options, and making fully informed decisions with patients to optimize healing.
Dennis Lönard is a Researcher in the Department of Physics at Rhineland-Palatinate Technical University Kaiserslautern-Landau, working within Professor Artur Widera's research group (AG Widera). Based in room 76-126 with contact number +49 (0)631 205-4578, he focuses on quantum sensing applications using nitrogen-vacancy (NV) centers in diamond for advanced magnetic field detection and material characterization. His research centers on quantum sensing with NV centers, specializing in magnetic field imaging, vector magnetometry, and nanoscale material analysis. Key investigations include developing miniaturized diamond-based sensors, studying temperature-dependent charge dynamics in nanodiamonds, and probing spin-crossover thin-film magnetism. This work bridges quantum physics, condensed matter systems, and nanotechnology to advance solid-state quantum sensing capabilities. Recent publications reveal a concentrated research trajectory in diamond-based quantum sensing, with significant contributions to magnetic field measurement precision and material characterization techniques. The 2024-2025 publications demonstrate increasing sophistication in experimental methodologies, particularly in adapting NV-center technology for complex material systems like Fe-triazole spin-crossover thin-layers and nanodiamond relaxometry applications. Lönard operates within AG Widera's quantum optics and quantum information processing laboratory, which specializes in diamond-based quantum systems. The group's infrastructure supports cutting-edge research in quantum sensing, leveraging nanofabrication capabilities and advanced optical measurement techniques for solid-state quantum applications.
Professor Mara Cercignani is Professor and Head of MRI within the School of Psychology at Cardiff University . Internationally recognised for developing and applying quantitative MRI techniques, she leads a multidisciplinary programme that links non-invasive microstructural imaging to brain function and pathology, with particular emphasis on Multiple Sclerosis, dementia and depression. Education & Career: Current appointment: Professor and Head of MRI, School of Psychology, Cardiff University. Previous roles and institutional affiliations have included collaborative posts across Europe and the UK, though full biographical dates are not given in the provided text. Research Interests: Prof Cercignani’s work exploits quantitative MRI —diffusion imaging, magnetisation-transfer imaging, and multi-parametric relaxometry—to map tissue microstructure in vivo. She integrates these data with EEG/MEG, TMS and behavioural paradigms to relate anatomy to function. A major strand investigates myelin density and axonal conduction velocity as determinants of cognitive and motor performance in health and disease. She has pioneered the use of VERDICT-MRI and diffusion-weighted MR spectroscopy to probe cellular and vascular micro-environment, and applies these tools to understand neuroinflammation, fatigue, and neurodegeneration. Publication landscape: Over the past five years her output (> 60 papers) has concentrated on three overlapping themes: (i) neuroimmune interactions —how peripheral inflammation and cytokine challenges remodel reward and punishment circuits; (ii) neurodegeneration and glymphatic dysfunction —early microstructural changes in Alzheimer’s disease, MS and ALS detected by diffusion and sodium MRI; and (iii) network-level plasticity —how cognitive reserve, sleep and memory reactivation alter structural connectivity. Scientific Awards & Recognition: Continuous major-project funding from UKRI (MRC, EPSRC), EU-FP7/H2020, Wellcome Trust and industry partners. Invited keynote speaker at International Society for Magnetic Resonance in Medicine (ISMRM) and Organisation for Human Brain Mapping (OHBM). Serves on editorial boards of NeuroImage , Human Brain Mapping and Multiple Sclerosis Journal . Supervision & Team Leadership: Prof Cercignani heads the Cardiff Neuroimaging Group , currently supervising 8 PhD students and 4 post-doctoral researchers working on projects spanning MR physics, computational modelling, and translational neurology. Recent major grants include a Wellcome Trust collaborative award on “Neuroimmune Imaging in Depression” and an MRC programme grant on “Quantitative Imaging of Myelin in MS”. Laboratory & Core Facilities: She directs the Cardiff University Brain Research Imaging Centre (CUBRIC) 3 T MRI Physics programme , managing state-of-the-art Siemens Prisma and Connectom systems, and co-leads the low-field 64 mT UNITY consortium aimed at deploying portable neuroimaging in low- and middle-income settings.
Walter Witschey is an Associate Professor of Radiology at the University of Pennsylvania, where he also serves as Associate Vice Chair of Research IT and Director of the Advanced Cardiovascular Imaging Lab. His research focuses on theoretical and applied magnetic resonance imaging (MRI), machine learning, and cardiothoracic imaging, with a multidisciplinary approach integrating electrical engineering, computer science, biology, and bioengineering. His lab develops machine learning algorithms for cardiac MRI , chest CT/MRI , and hepatic/visceral imaging . The 2024–2025 publications highlight his work in 3D aortic geometry , AI-driven imaging protocols , deep learning for MRI/CT analysis , and genetic associations with vascular disease . His team also explores NAD+ metabolism , reactive oxygen species , and radiology data analytics to improve diagnostic precision and prognostic modeling. Scientific awards and honors are not explicitly mentioned in the provided text. Dr. Witschey leads the Radiology Data Analytics team and directs a multidisciplinary lab focused on translational cardiovascular imaging solutions.
Dennis Kurzbach serves as Associate Professor and Deputy Head of the NMR Center at the University of Vienna's Faculty of Chemistry, Institute of Biological Chemistry. His research pioneers magnetic resonance methodologies including NMR, EPR, and hyperpolarization techniques to solve critical challenges in chemical and biological sciences, with significant contributions to biomimetic materials and protein dynamics. His research centers on the structural dynamics of intrinsically disordered proteins (IDPs), peptide-guided biomimetic mineralization (silica/calcium phosphate systems), and hyperpolarization-enhanced NMR for real-time monitoring of transient biological processes. The Kurzbach Spectroscopy Studio develops innovative approaches to observe short-lived intermediates in protein folding, mineral nucleation, and metabolic pathways, bridging biophysical chemistry with materials science through advanced spectroscopic techniques. Recent publications demonstrate a cohesive trajectory toward enhancing NMR sensitivity for biological applications, with hyperpolarization techniques enabling unprecedented observation of fast dynamic processes. Key thematic clusters include biomimetic material synthesis driven by peptide self-assembly, domain-specific spectroscopy for DNA-protein interactions, and machine learning integration for analyzing complex IDP behavior – all converging toward real-time molecular observation in physiological conditions. Professor Kurzbach actively supervises bachelor and master theses across organic, bioinorganic, biological, and biophysical chemistry disciplines while leading post-graduate seminars in chemical and biological chemistry. His laboratory maintains cutting-edge instrumentation through the NMR Center, focusing on methodological innovation that directly impacts structural biology and materials science research.
Sophia N. Suarez is an Associate Dean and Professor in the Physics Department at Brooklyn College, part of the City University of New York (CUNY) system. She is affiliated with the School of Natural and Behavioral Sciences and maintains her office in Ingersoll Hall (room 2157e) with laboratory space in rooms 239, 245, and 247. Dr. Suarez earned her B.A./M.A. in Physics from Hunter College in 1998 and her Ph.D. in Physics (Condensed Matter) from the Graduate School & University Center of CUNY in 2004. Following her doctoral studies, she completed a two-and-a-half-year post-doctoral fellowship at the Chemistry Division of the US Naval Research Laboratory in Washington, DC, as a National Research Council (NRC) fellow. Her research focuses on characterizing ions and molecules interactions and transport in materials for electrochemical devices such as non-lithium ion batteries and proton conducting fuel cells. She specializes in studying deep eutectic solvents, ionic liquids, conducting polymers, and gas hydrates using Nuclear Magnetic Resonance (NMR) techniques. Her laboratory employs variable temperature, pressure, and frequency 1D NMR to investigate heterogeneous dynamics in electrolytic materials. Analysis of her recent publications reveals a strong emphasis on energy storage materials, particularly deep eutectic solvents for battery applications, proton transport in fuel cell membranes, and ionic liquid composites. Her work bridges fundamental science with practical applications in sustainable energy technologies, with increasing focus on alternative battery chemistries beyond lithium-ion systems. Woodrow Wilson National Fellowship Foundation Career Enhancement Award (2011, $30,000) German Academic Exchange Service (DAAD) Research Stay at Helmholtz Institute Ulm (2017) Department of Energy Basic Energy Sciences grant ($624,000 for 3 years) NSF DMR SSMC RAPID grant ($200,000, 2020-2021) Dr. Suarez actively mentors students in her laboratory, which currently includes one doctoral student, two undergraduates, and four high school students. She has received multiple grants specifically designed to promote underrepresented minority participation in STEM research. Her laboratory work spans fundamental characterization of materials to applied research with potential commercial applications in energy storage technologies.
Malcolm Levitt is a Professor of Chemistry at the University of Southampton, School of Chemistry, since 2000. His research focuses on Magnetic Resonance techniques and endofullerene encapsulation, with contributions to quantum science and materials chemistry. He earned a PhD from Oxford University (1981) and held postdoctoral roles at MIT, ETH Zurich, and Cambridge before academic positions in Sweden and Southampton. Education: PhD in Physical Chemistry, University of Oxford, 1981 Postdoctoral Research at MIT (USA), ETH Zurich (Switzerland), and University of Cambridge (UK) Research Interests: Explores advanced NMR methodologies, hyperpolarization, and quantum phenomena in materials, particularly endofullerenes. His work bridges chemistry and physics, with applications in nanomaterials and spectroscopy. Key Awards: LATSIS Research Prize of ETH-Zürich (1985) Ampère Prize of the International Society of Magnetic Resonance (2005) Davy Medal (2021) Advising & Collaboration: Supervises two current PhD students and has collaborated with institutions like the Tata Institute of Fundamental Research. His research has been supported by interdisciplinary partnerships in quantum chemistry and materials science.
Deva Chan is an Assistant Professor in Biomedical Engineering at Purdue University, with a courtesy appointment in Mechanical Engineering. She is affiliated with the Weldon School of Biomedical Engineering and focuses on interdisciplinary research at the intersection of biomechanics, medical imaging, and tissue engineering. Her work emphasizes cartilage mechanics, osteoarthritis progression, and the application of advanced imaging techniques for understanding musculoskeletal disorders. Research interests span the biomechanical and biochemical mechanisms underlying joint degeneration, including hyaluronic acid metabolism, cellular repair responses, and fibrosis. Methodologically, her lab employs finite element modeling, micro-CT imaging, and live-cell biomechanical systems to study tissue behavior under physiological and pathological conditions. Recent studies highlight her contributions to understanding how mechanical loading influences synovial biology, the role of hyaluronic acid in cartilage health, and the development of novel imaging modalities for non-invasive tissue characterization. Key projects include modeling knee osteoarthritis progression and developing pneumatically controlled cell-stretching devices for mechanobiology studies.
Li Feng, PhD, is an Associate Professor in the Department of Radiology at NYU Grossman School of Medicine, New York University, where he also serves as Director of Rapid Imaging. He earned his PhD from New York University, specializing in advanced medical imaging techniques. His research focuses on accelerating and optimizing Magnetic Resonance Imaging (MRI) through novel computational methods. Key areas include: Rapid imaging protocols for abdominal and liver diagnostics Deep learning-based reconstruction of dynamic MRI data Quantitative mapping techniques for tissue characterization Motion-robust acquisition methods for clinical applications Recent publications demonstrate his leadership in developing GPU-accelerated reconstruction algorithms, non-contrast-enhanced vascular imaging, and AI-driven quantitative MRI techniques applied to neurology, oncology, and metabolic disorders. His work consistently bridges technical innovation with clinical translation. Dr. Feng leads multiple clinical trials including: 3D Free-Breathing Fat and Iron Corrected T1 Mapping Rapid Motion-Robust DCE-MRI for Liver Perfusion Quantification Rapid Structure-Function MRI of the Lung for Post-COVID-19 Management
Ed Lin is an Adjunct Professor in the Department of Management at the University of New Brunswick (UNB), affiliated with the Faculty of Management in Fredericton. His research focuses on advanced magnetic resonance imaging (MRI) techniques, fluid dynamics, and biomedical engineering applications. Lin explores topics such as low-field MRI design, flow characterization, and material science through experimental and methodological innovations. His work has implications for pharmaceutical research, biomedical device development, and educational pedagogy. Lin’s publications emphasize MRI advancements, including instrumentation design, phase encoding methods, and turbulence analysis. His recent studies address challenges in imaging multiphase flows, foam dynamics, and non-Newtonian fluids. He has also engaged in interdisciplinary research, such as improving classroom learning through practical applications. No awards or grants are explicitly mentioned in the provided texts. While no advisees are listed, his research collaborations span academic and industrial settings. Lin’s lab work likely involves MRI instrumentation and fluid dynamics experiments, though specific team details are not detailed.
Dietmar Paschek is a Lecturer in Physical and Theoretical Chemistry at the University of Rostock. He leads the computer simulations group within the Ludwig research team and teaches Statistical Thermodynamics courses. His research focuses on computational chemistry, molecular dynamics, and ionic liquids. Dr. Paschek's publications emphasize molecular simulations of ionic liquids, hydrogen bonding networks, and NMR relaxation phenomena. Recent work explores solvent effects, ion transport mechanisms, and methodological advances in diffusion coefficient calculations. He maintains collaborations through the RTG 2943 SPECTRE research training group and contributes to the Faculty of Mathematics and Natural Sciences. His research group develops simulation tools for molecular many-particle systems.
Martha Murray, MD, is Professor of Orthopedic Surgery at Harvard Medical School and Orthopedic Surgeon-in-Chief in the Department of Orthopedics and Sports Medicine at Boston Children’s Hospital. An internationally recognized authority on ACL injuries, she pioneered the FDA-approved Bridge-Enhanced ACL Restoration (BEAR) technique that enables the torn ligament to heal without graft harvest. Her clinical practice focuses on knee injuries in athletes of all ages, while her NIH- and NFL-PA-funded research program integrates tissue engineering, quantitative MRI, and translational large-animal models to prevent post-traumatic osteoarthritis. Education & Training BS, Mechanical Engineering, University of Delaware, 1987 MS, Materials Science and Engineering, Stanford University, 1990 MD, University of Pennsylvania, 1994 Internship, Massachusetts General Hospital, 1995 Residency, Harvard Combined Orthopedic Residency Program, 1999 Fellowships, Pediatric Orthopedics & Sports Medicine, Boston Children’s Hospital, 2002 Research Focus Dr. Murray’s work centers on understanding why the ACL fails to heal and developing in-situ biologic solutions that restore native ligament anatomy while limiting secondary osteoarthritis. Her laboratory has created collagen-platelet scaffolds, optimized quantitative MRI biomarkers (T2*, volumetrics), and leveraged multi-omics profiling to monitor ligament remodeling. Recent efforts apply deep-learning models to predict reinjury risk and integrate telehealth to reduce disparities in pediatric sports-medicine care. Scientific Awards Kappa Delta Award – highest research honor in orthopedic surgery Cabaud Memorial Award – premier award in sports-medicine research Clinical Trials & Funding She is principal investigator on FDA-regulated first-in-human and multi-center randomized trials validating the BEAR technique, supported by the NIH and the NFL Players Association. These studies demonstrated non-inferiority to traditional ACL reconstruction at two years while preserving proprioception and native anatomy. Ongoing work examines six-year outcomes and long-term osteoarthritis prevention. Labs & Teams Dr. Murray directs the Sports Medicine Research Laboratory at Boston Children’s Hospital, uniting orthopedic surgeons, bioengineers, imaging scientists, and data scientists to advance ligament repair technologies from bench to bedside.
