Find Academic Supervisors

• MR Imaging
• MR Elastography
• Low-field MRI
• +5 more

Dr. Najat Salameh is a Senior Lecturer at the University of Aberdeen's School of Medicine, Medical Sciences and Nutrition, where she leads the Medical Imaging Technologies theme at the Institute of Medical Sciences. She co-founded the Center for Adaptable MRI Technology (AMT Center) in 2017 and relocated it to Aberdeen in April 2023, establishing what will become the largest low-field MR technology platform with approximately 900 m 2 of lab and office space at the Foresterhill campus. Her educational background includes: PhD in Biomedical Sciences from Université Catholique de Louvain (2009) DEA (Master) in Health Sciences from Université Catholique de Louvain (2008) Diplôme ès Sciences Physiques from University of Geneva (2005) Dr. Salameh has developed over 20+ years of expertise in MR imaging, positioning herself at the interface between Physics and Medicine. Her research spans from fundamental physics to microsurgery in rodents, with specialization in MR elastography for liver and brain applications, thermometry, metabolic imaging, and low magnetic field MRI systems. She designs, implements, and validates imaging protocols across magnetic fields ranging from 0.0065 T to 9.4 T, with a strong focus on making MRI technology more accessible and adaptable for clinical use. Her work bridges the gap between advanced imaging technology development and practical clinical applications. Her recent publication portfolio reveals a clear trajectory toward practical implementation of low-field MRI systems, with emphasis on hardware innovation, deep learning applications for image reconstruction, and clinical translation of MR elastography techniques. The research demonstrates significant progress in making quantitative tissue characterization more accessible through cost-effective imaging solutions. Her scientific recognition includes: V-LF-Spiro3D grant from Research Councils UK (2023-2027) for low-field 3D magnetic resonance spirometry Interventional and susceptibility artifact-free MR Imaging award from Swiss National Science Foundation (2017-2021) In vivo detection and imaging of free radicals using the Overhauser effect grant from Swiss National Science Foundation (2013-2014) MR elastography for chronic liver diseases award from Fonds pour la formation à la recherche dans l'industrie et l'agriculture (2005-2009) As co-founder and leader of the AMT Center, Dr. Salameh collaborates with Dr. Sarracanie, Dr. Broche, and Dr. Ross on developing the next generation of low-field MRI technology. Her center is currently establishing a major research infrastructure with three fixed low-field scanners and two Field-Cycling whole-body systems in a newly refurbished facility, positioning Aberdeen as a global hub for adaptable MRI technology development. The Center for Adaptable MRI Technology represents a significant investment in accessible imaging technology, with the relocated platform forming what will be the largest low-field MR technology facility globally. This initiative supports research across multiple clinical applications while addressing the need for more affordable and widely deployable imaging solutions.

Emma BunceView profile

Professor

• Planetary Plasma Physics
• Magnetospheric Dynamics
• Space Exploration
• +3 more

Professor Emma Bunce serves as the Head of School for Physics and Astronomy at the University of Leicester and holds the title of Professor of Planetary Plasma Physics. Her research focuses on planetary magnetospheres, with significant contributions to NASA's Juno mission (Jupiter), the Cassini mission (Saturn), and ESA/JAXA's BepiColombo mission (Mercury). She leads the Mercury Imaging X-ray Spectrometer (MIXS) instrument on BepiColombo and co-leads the SIXS instrument. Her work explores plasma dynamics, magnetosphere-ionosphere coupling, and planetary exploration technologies. Research Interests: Planetary plasma physics, magnetospheric dynamics of gas giants and Mercury, mission instrumentation (e.g., X-ray spectrometers), and space weather effects in planetary environments. Key projects include Juno's polar magnetosphere studies, Cassini's Saturnian magnetosphere analysis, and BepiColombo's Mercury surface composition investigations. Labs/Teams: Principal Investigator of MIXS and Co-Investigator of SIXS (BepiColombo), Juno Magnetosphere Working Group member, and former Cassini magnetometer team Co-Investigator. Active in collaborative mission planning with NASA and ESA. Future Work: Leading BepiColombo's Mercury arrival (2025), advancing X-ray spectrometry techniques, and advocating for ice giant exploration missions (e.g., Uranus orbiter concepts).

• Quantum Sensing
• Optically Pumped Magnetometers
• Atomic Physics
• +7 more

Marcin Mrozowski is a Research Fellow in the Department of Physics at the University of Strathclyde, Faculty of Science. His work is centered on quantum sensing technologies, particularly optically pumped magnetometers, with applications in navigation, space weather, and biomedical diagnostics. His research focuses on the development of high-sensitivity, miniaturized, and low-noise atomic magnetometers. Key areas include zero-field detection, spin relaxation optimization, and portable systems for real-world deployment. He has contributed to advancements in cesium-based sensors and programmable current sources for magnetic field control. The recent publications reveal a strong trend toward practical quantum instrumentation—emphasizing performance, portability, and integration into distributed networks. His work bridges fundamental atomic physics with engineering applications in navigation, environmental monitoring, and medical sensing. Optically Pumped Magnetometers Quantum Sensing Atomic Physics Low-Noise Instrumentation Space Weather Monitoring Biomedical Magnetometry Mrozowski was a Research Co-investigator on the EPSRC-funded Translational Quantum Technology PhD Studentship (2019–2024), contributing to the development of quantum sensors for real-world deployment. He has collaborated extensively with Paul Griffin and Erling Riis. He has also engaged in public outreach, including participation in the Big Bounce 2021 science festival. He is affiliated with research labs focused on experimental quantum optics and precision measurement at Strathclyde, contributing to both hardware development and data acquisition systems for advanced magnetometry.

David MilesView profile

Assistant Professor

• Space Weather
• Solar-Terrestrial Physics
• Auroral Dynamics
• +5 more

David Miles is an Assistant Professor at the University of Iowa , specializing in experimental space physics and magnetic field instrument development. His research focuses on space weather , auroral dynamics , and high-resolution magnetic field measurements . Instrument Co-PI for the Cassiope/e-POP spacecraft Developed a specialized furnace for manufacturing space-instrument components Co-created the course The Edge of Space: Mission and Instrument Design for Spaceflight His recent work involves magnetic interference mitigation and nanosatellite magnetometer design, with applications in missions like TRACERS and SelenITA. While no specific awards are mentioned, his contributions to international space programs are highlighted.

Stuart InglebyView profile

Senior Lecturer

• Quantum Technology
• Optical Magnetometry
• Atomic Physics
• +7 more

Dr. Stuart Ingleby is a Senior Lecturer and Chancellor’s Fellow in the Department of Physics at the University of Strathclyde, Faculty of Science. His research focuses on the development of portable, high-sensitivity optical magnetometers for practical applications in medicine, navigation, and environmental monitoring. His research interests include: Quantum-enabled magnetic sensors Compact atomic and optical systems Real-time data acquisition and processing Low-noise precision electronics for sensor interfaces His recent publications demonstrate a strong trend in advancing optically pumped magnetometers (OPMs) for field deployment, with applications ranging from GNSS-denied navigation to space weather monitoring and biomedical imaging. The work emphasizes miniaturization, enhanced sensitivity, and robust hardware-software integration. Scientific awards received: University of Strathclyde Chancellor's Fellowship (2021) Dr. Ingleby leads and co-investigates multiple research projects funded by EPSRC, UK Space Agency, and industry partners such as AWE plc. He is actively involved in the UK Quantum Technology Hub in Sensing, Imaging and Timing (QuSIT), contributing to quantum-enabled positioning and navigation systems. He mentors PhD students and collaborates extensively within interdisciplinary teams. His work includes both theoretical modeling and experimental development of atomic sensors. He is a peer reviewer for journals including Optics Express , Advanced Optical Technologies , and European Physical Journal Quantum Technology , reflecting his standing in the quantum sensing community.

Svilen BobevView profile

Professor

• Solid-State Chemistry
• Inorganic Chemistry
• Materials Science
• +6 more

Svilen Bobev is a Professor in the Department of Chemistry and Biochemistry at the University of Delaware, part of the College of Arts & Sciences. His office is located in 304A Drake Hall, Newark, DE 19716, with contact information including phone (302.831.8720) and email (bobev@udel.edu). He maintains an active research laboratory focused on the synthesis and characterization of novel solid-state materials. Dr. Bobev received his B.S./M.S. in 1995 from the University of Sofia and completed his Ph.D. in 2002 at the University of Notre Dame. Following his doctoral studies, he conducted postdoctoral research at Los Alamos National Laboratory from 2002-2004 before joining the University of Delaware faculty. His research program addresses fundamental issues in the relationships among composition, structure, and electronic properties in complex intermetallic compounds. Current research directions include structural relationships and magnetism in lanthanide element compounds and novel compounds for thermoelectric applications . His work bridges synthetic inorganic chemistry, theoretical chemistry, condensed-matter physics, X-ray crystallography, and materials science, with particular focus on Zintl phases, thermoelectric materials, and magnetic compounds. Analysis of his recent publications (2024-2025) reveals a strong emphasis on Zintl phases, particularly antimonides and arsenides with rare-earth elements. His research demonstrates significant progress in understanding structure-property relationships in thermoelectric materials, with numerous studies on crystal structure characterization, electronic properties, and thermal behavior. The work increasingly incorporates computational approaches alongside traditional synthetic methods. Professor Bobev actively mentors students at multiple levels. His research group currently includes graduate student Amanda Childs, postdocs Dr. Hussein Osman and Dr. Sviatoslav Baranets, and undergraduate student Adam Balvanz. The laboratory maintains a tradition of supporting former students who have moved on to pursue their own careers, affectionately referred to as 'the lucky ones' in his group documentation. The Bobev research laboratory, located on the 3rd floor of the Drake research complex, is exceptionally well-equipped for materials synthesis and characterization. Facilities include a double-glove box with microscope, custom arc-welder/melter, high vacuum line, multiple high-temperature furnaces (up to 1700°C), TG/DSC thermal analysis equipment, Seebeck/resistivity measurement system, bench-top Rigaku MiniFlex powder diffractometer, and a Quantum Design SQUID magnetometer. The lab also maintains extensive computational resources with multiple Mac and Windows workstations running specialized crystallography and materials science software.

• Particle Physics
• Accelerator Physics
• Nuclear Physics
• +3 more

Dr. Ralf Gebel is a researcher at the Institute of Nuclear Physics (IKP) at Forschungszentrum Jülich. His work focuses on accelerator physics, storage ring technology, and neutron source development. He is actively involved in the High Brilliance Neutron Source (HBS) project and operates within the Cooler Synchrotron COSY facility. Key research areas include beam dynamics optimization, spin physics, and precision experiments for electric dipole moment (EDM) measurements. Dr. Gebel contributes to advancements in ion source design, proton beam polarization techniques, and machine learning-driven accelerator optimization. His technical expertise spans beamline design for neutron production, development of RF spin rotators, and feedback systems for maintaining resonance conditions in storage rings. Recent efforts include the implementation of reinforcement learning for injection optimization and the first tests of polarized ion sources for future storage ring experiments. Dr. Gebel's work bridges fundamental physics research with applied accelerator technology, supporting both academic investigations and industrial applications in neutron science. He collaborates on projects such as the HBS neutron facility and ELENA ion source development, contributing to next-generation particle physics infrastructure. His research frequently intersects with medical radionuclide production and radiation effects testing using GeV proton beams.

Gregory DoblerView profile

Associate Professor

• Data-driven Urban Science
• Astrophysics
• Machine Learning
• +5 more

Gregory Dobler is an Associate Professor in the Department of Physics & Astronomy at the University of Delaware, part of the College of Arts & Sciences. He joined UD in 2019. His research bridges astrophysics and urban science, leveraging machine learning and data science to explore topics such as interstellar medium physics, particle dark matter, strong gravitational lensing, and urban energy dynamics. Dobler holds a B.S. from Haverford College and a Ph.D. from the University of Pennsylvania. His work spans innovative applications of AI in astronomy, including automated detection of light echoes and transient phenomena, while also advancing urban studies through hyperspectral imaging of vegetation health, air quality monitoring, and magnetic field analysis of cities. Notable contributions include the development of the Urban Observatory platform for multiscale urban systems analysis and the Multi-city Urban Observatory Network. Recent research trends emphasize interdisciplinary approaches, integrating deep learning with environmental sensing to address urban challenges like energy consumption and public health. His publications highlight collaborations across fields such as remote sensing, climate science, and smart city technologies. Dobler’s lab focuses on creating novel imaging systems and algorithmic frameworks to study complex systems, from galactic structures to urban infrastructure dynamics.

Xianzhe JiaView profile

Professor

• Space Physics
• Planetary Science
• Magnetospheric Physics
• +3 more

Xianzhe Jia is a Professor in the Department of Climate and Space Sciences and Engineering at the University of Michigan's College of Engineering. His research focuses on space physics and planetary science, particularly in modeling planetary magnetospheres and plasma-moon interactions across the solar system. He maintains active involvement in major NASA missions including serving as Deputy Principal Investigator for the Magnetometer team on the Europa Clipper mission. Ph.D. from University of California, Los Angeles M.S. and B.S. from University of Science and Technology of China Professor Jia's research interests center on global modeling of planetary magnetospheres and plasma-moon interactions, with particular expertise in large-scale plasma transport and dynamics in planetary magnetospheres. His work investigates the magnetic properties and interior structures of planetary satellites and the plasma and neutral environments of comets. His research bridges theoretical modeling with spacecraft observations to understand fundamental processes in planetary space environments. Analysis of Professor Jia's recent publications reveals a strong focus on Jovian system magnetospheres, particularly Ganymede and Europa, with increasing attention to Mercury and Uranus. His work consistently combines advanced computational modeling (MHD, Hall MHD, MHD-EPIC) with spacecraft mission data to investigate magnetospheric dynamics, reconnection processes, and plasma interactions with planetary bodies. The Europa Clipper mission represents a major current focus, with significant contributions to understanding potential subsurface oceans through magnetic field analysis. Faculty Recognition Award, University of Michigan (2022) NASA Group Achievement Award to the Europa Clipper Magnetometer Team (2022) Henry Russel Award, University of Michigan (2020) Ted Kennedy Family Faculty Team Excellence Award (2019) NASA Early Career Fellow (2015) Professor Jia actively mentors graduate students, with several appearing as first authors on publications, indicating strong research guidance. His extensive service includes editorship of the AGU Books Program, co-editing a Cambridge University Press volume on Ganymede, and serving on numerous NASA proposal review panels. His research has been supported by multiple NASA programs including OPR, PMDAP, LASER, and CDAP. Professor Jia leads research within the University of Michigan's Climate and Space Sciences and Engineering department, collaborating with international teams through the International Space Science Institute and contributing to major planetary exploration missions targeting Jupiter's icy moons and other solar system bodies.

• Space Physics
• Magnetospheric Dynamics
• Plasma Turbulence
• +1 more

Dr. Matthew Argall is a Research Professor in Physics & Astronomy at the University of New Hampshire's College of Engineering and Physical Sciences. His research focuses on space plasma physics, magnetospheric dynamics, and space weather phenomena using NASA mission data. Research explores magnetic reconnection processes, plasma turbulence, and energy conversion mechanisms in space environments. Recent work develops machine learning tools for space weather prediction and VR systems for science education. Publications extensively utilize data from MMS, Wind, and Ulysses missions. Educational Contributions: Teaches graduate-level Optics (PHYS 708) Supervises senior design projects (PHYS 797) Mentors doctoral researchers (PHYS 999)

Scott MartinView profile

Assistant Professor

• GPS Software Receiver Design
• Real Time Kinematic Positioning
• Sensor Fusion for Navigation
• +3 more

Scott Martin is an Assistant Professor in the Department of Mechanical Engineering at Auburn University. His research focuses on advanced navigation systems, particularly in GPS software receiver design, real-time kinematic positioning, and control of unmanned systems. He leads the GPS and Vehicle Dynamics Laboratory and is involved in Auburn's Autonomous Vehicle Research facility at the National Center for Asphalt Technology (NCAT). His expertise includes robust positioning in degraded environments, anti-spoofing techniques, and sensor fusion for autonomous systems. Education: Ph.D. Mechanical Engineering (Auburn University), M.S. Mechanical Engineering (Auburn University), B.S. Systems Engineering (East Carolina University). Research Interests: Dr. Martin’s work addresses challenges in navigation and positioning for autonomous vehicles, including cybersecurity for GNSS systems, cooperative vector tracking, and integration of GPS with inertial and cellular signals. Key areas include spoofing detection, multi-sensor fusion, and navigation in signal-degraded environments. His recent projects include platooning studies with the American Center for Mobility and leveraging maritime buoys as signals of opportunity. Labs/Teams: Directs the GPS and Vehicle Dynamics Laboratory and collaborates with the National Center for Asphalt Technology on autonomous vehicle testing.

Tatiana PodladchikovaView profile

Associate Professor

• Solar Physics
• Space Weather
• Coronal Mass Ejections
• +5 more

Dr. Tatiana Podladchikova serves as Associate Professor, Director of the Center for Digital Engineering, and Director of the Engineering Systems Master's Program at Skolkovo Institute of Science and Technology (Skoltech). Her work bridges fundamental solar physics research with operational space weather services to protect critical infrastructure including satellites, aviation systems, and power grids from solar-induced geomagnetic disturbances. Her research centers on solar activity dynamics—particularly solar cycles, eruptive flares, coronal mass ejections (CMEs), and high-speed solar wind streams—and their terrestrial impacts. She develops predictive models for space weather phenomena using advanced data analysis techniques, with recent work integrating deep learning frameworks for solar observation translation and physics-informed neural networks for magnetic field extrapolation. Her research directly addresses infrastructure vulnerabilities during extreme space weather events through operational forecasting systems. Dr. Podladchikova's publications demonstrate a clear evolution toward AI-enhanced space weather prediction, combining multi-point solar observations (including Solar Orbiter mission data), coronal dimming analysis for early CME detection, and innovative applications like the DIRECD method for real-time propagation tracking. Her work spans fundamental solar physics, engineering applications for satellite systems, and environmental monitoring techniques. Her scientific recognition includes: International Alexander Chizhevsky Medal for Space Weather and Space Climate (2015, Belgium) Skoltech Best Professor Award (2018-2020) Outstanding Achievements in Education and Research (2022-2023) As an educator, she directs Skoltech's Engineering Systems Master's Program, leads the Space Weather Laboratory, and teaches Experimental Data Analysis and Data Analysis for Space Weather courses. Her leadership extends to public outreach initiatives including science communication events like 'Mysteries of the Sun: Space Weather of the 21st Century' lectures. She heads the Skoltech Space Weather Laboratory where her team develops operational forecasting tools, analyzes multi-spacecraft solar observations, and advances CubeSat technologies including the Skoltech-F mission. Current projects focus on real-time geomagnetic storm prediction systems and AI-driven translation of historical solar datasets to maintain observational continuity.

Ville LundénView profile

Researcher

• Space Science
• Satellite Engineering
• Plasma Physics
• +3 more

Ville Lundén is a researcher at Aalto University's Department of Electronics and Nanoengineering, specializing in satellite engineering and space science. He contributes to the Jaan Praks Group and focuses on CubeSat missions in high-radiation environments. Affiliation: Department of Electronics and Nanoengineering, Aalto University Role: Researcher His research spans satellite design, radiation belt science, and space weather instrumentation. Key themes include: Antenna and payload engineering for Ka-band and GNSS systems Multi-spacecraft mission design for Mars and Venus exploration Radiation mitigation strategies for CubeSats in harsh orbits Power and structural system verification for deep-space missions Commercial off-the-shelf component adaptation to space environments His publications highlight interdisciplinary work in aerospace engineering, plasma physics, and electromagnetic modeling. Collaborations include institutions like University of Helsinki (radiation modeling) and URSI symposiums.

• Planetary Sciences
• Astrophysics
• Geology
• +3 more

Linda Elkins-Tanton is a Foundation and Regents Professor at Arizona State University's School of Earth and Space Exploration, serving as Vice President of the ASU Interplanetary Initiative and Principal Investigator (PI) of NASA's Psyche mission. She holds a Ph.D. from MIT and has held roles at Brown University, MIT, and the Carnegie Institution for Science before joining ASU in 2014. Her research focuses on planetary formation, magma oceans, and interactions between rocky planets and their atmospheres. She also promotes inquiry-based education and leadership development in STEM. Notable fieldwork includes expeditions in Siberia, Iceland, and the Faroe Islands. Elkins-Tanton's awards include the NSF CAREER Award, Arthur L. Day Prize, and election to the National Academy of Sciences. Her work on the Psyche mission explores the largest metal asteroid, aiming to understand early solar system dynamics. She leads interdisciplinary teams and advises on NASA missions, including the Europa mission and Mars 2020 Rover.

• Experimental Condensed Matter Physics
• Cryogenic Electronics
• Quantum Transport in 2D Materials
• +6 more

Dr. Michael Thompson is a Senior Lecturer in Experimental Condensed Matter Physics at Lancaster University's Department of Physics. He holds a prestigious Royal Academy of Engineering Research fellowship focused on "Graphene transistors for cryogenic electronics" and is actively involved in cutting-edge research at the intersection of quantum technologies and low-temperature physics. Thompson's research focuses on developing electronics that operate at cryogenic temperatures using 2D materials, with applications spanning from medical sensors and materials characterization to deep space communications and dark matter searches. His work is particularly significant for building scalable quantum computers. He has transitioned from developing optoelectronic devices using narrow bandgap semiconductors and nanowires to studying quantum transport in 2D materials, where he has developed ultra-sensitive magnetometers using graphene Josephson junctions and created a new cryogenic platform in collaboration with Oxford Instruments. His recent publications demonstrate a strong focus on quantum sensing applications, particularly for dark matter detection through the QUEST-DMC project, and advancing cryogenic electronics for quantum computing. The research spans thermal transport in nanoelectronic devices at ultra-low temperatures, graphene-based quantum devices, and superfluid helium applications for cosmological studies. Thompson has received significant recognition including: Royal Academy of Engineering Research fellowship Research Impact Award Science and Technology Dean's Award for Excellence in External Engagement and Impact He currently supervises two PhD students, Seth Bennett and Emily Gamblen, working in Low Temperature Physics and Quantum Nanotechnology. His research is supported through multiple grants including the Graphene Transistors for Cryogenic Electronics project (2019-2024) and the LANCQTFP: Quantum Enhanced Superfluid Technologies for Dark Matter and Cosmology (2020-2025). Thompson is an active member of the European Microkelvin Collaboration (EMP) and collaborates extensively with the National Graphene Institute and the EU's Graphene Flagship initiative. His work bridges fundamental physics with practical applications, positioning him at the forefront of quantum technology development.