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Thomas SchönauView profile

Researcher

• Quantum Physics
• Superconductivity
• Magnetic Field Sensing
• +4 more

Thomas Schönau is a Researcher at the Leibniz Institute of Photonic Technology within the Quantum Systems department. His work focuses on advancing superconducting sensor technologies for precision magnetic field measurements. Quantum Systems Department Leibniz Institute of Photonic Technology Research Interests: Schönau specializes in SQUID-based technologies, magnetometry, and cryogenic current comparators. His research addresses noise reduction, field stability, and sensor optimization for applications in particle physics and geophysics. Recent Publications: His 2025 work on optically pumped vector magnetometers demonstrates unshielded ultrasensitive measurements. 2024 studies focus on high-inductance CCCs for beamline diagnostics, achieving sub-pA noise levels. Earlier works (2021-2017) cover SQIF-based sensors, flux trapping analysis, and nanoSQUID development. Technical Contributions: Schönau has pioneered innovations in: Background field-tolerant sensors Coreless SQUID comparators Submicron Josephson junctions Mobile magnetometry systems

Markus SchifflerView profile

Researcher

• Geophysics
• Quantum Technologies
• Electromagnetic Exploration
• +3 more

Markus Schiffler is a Researcher at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) within the Quantum Systems department, focusing on Quantum Magnetometry. His work centers on quantum magnetometer systems (SQUID sensors) for geophysical applications, particularly airborne and underwater magnetic gradiometry and electromagnetic exploration. Current position: Researcher, Leibniz-IPHT Key institutions: Leibniz-IPHT, collaborations with BGR, industry partners His research involves developing and applying full tensor magnetic gradiometers (FTMG) and semi-airborne electromagnetic systems for mineral exploration, UXO detection, and geological mapping. Projects like DESMEX highlight his contributions to integrating ground transmitters with airborne receivers for deep resource detection. Recent publications (2024–2017) emphasize advancements in SQUID-based sensors, noise compensation for airborne platforms, multivariate EM data processing, and underwater FTMG deployment. These works demonstrate applications in kimberlite, gold, and nickel exploration, as well as alum shale identification in Germany. While no scientific awards are explicitly listed, his collaborative papers with leading researchers in geophysics (e.g., Ronny Stolz, Michael Becken) underscore his impact. He contributes to technical workflows and commercial implementations of quantum sensor systems, including motion noise reduction and frequency domain signal separation. Labs/teams: Quantum Magnetometry work group at Leibniz-IPHT Collaborations with institutions like BGR, industry stakeholders

Florian WittkämperView profile

Researcher

• Quantum Magnetometry
• Optically Pumped Magnetometers
• Alkali Vapor Cells
• +3 more

Dr. Florian Wittkämper is a Researcher at the Leibniz Institute of Photonic Technology , specializing in quantum magnetometry and sensor development. His work focuses on advancing optically pumped magnetometers (OPMs), microfabricated alkali vapor cells, and plasmonic coatings for space applications. Current research explores vector magnetometry with strong bias fields Innovations in omnidirectional magnetic field sensitivity Passivated gold mirror integration for improved OPM performance Plasmonic coatings for stray-light reduction in space environments His recent publications demonstrate expertise in addressing heading errors through nonlinear Zeeman effects and light shift compensation, while developing robust materials for quantum sensing systems. Scientific awards and educational background information were not found in the provided texts.

Mario Gonzalez MaldonadoView profile

Research Fellow

• Quantum technologies
• Quantum sensors
• Precision measurements
• +3 more

Mario Gonzalez Maldonado is a Research Fellow at the University of Colorado , associated with the Atomic Devices & Instrumentation Group . His work involves the development of compact atomic magnetometers with high accuracy, including designing, constructing, and testing magnetic sensors based on microfabricated alkali vapor cells, analyzing performance data, and disseminating findings in leading journals and conferences. Research Interests: Quantum technologies Quantum sensors Precision measurements Atomic vapors Cold atoms Atomic interferometry Contact: mago4863@colorado.edu

Paola CappellaroView profile

Professor

• Quantum Information Science
• Quantum Sensing
• Quantum Computing
• +3 more

Paola Cappellaro serves as the Ford Professor of Engineering at the Massachusetts Institute of Technology, holding dual appointments as Professor of Nuclear Science and Engineering and Professor of Physics. She leads the Quantum Engineering Group within the Research Laboratory of Electronics (RLE), where her work bridges theoretical quantum information science and experimental solid-state physics. Education: Ph.D. in Nuclear Science and Engineering, MIT (2006) Postdoctoral Fellow, Harvard University ITAMP (2006-2009) Joint MS in Applied Physics, École Centrale Paris & Politecnico di Milano (2001) Laurea (BS/MS) in Nuclear Engineering, Politecnico di Milano, Summa cum Laude (2000) Her research pioneers quantum technologies using nitrogen-vacancy (NV) centers in diamond, focusing on three interconnected domains: quantum sensing (diamond magnetometers for nanoscale magnetic field detection), quantum computation (control of spin qubit registers), and quantum simulation (modeling condensed matter systems with spin chains). She integrates quantum information principles with experimental NMR/ESR techniques to overcome decoherence and enhance device scalability, with applications ranging from biological sensing to fundamental physics exploration. Analysis of her 2024-2025 publications reveals intensifying focus on quantum metrology enhancements, particularly through frequency-mixing techniques and hyperfine interactions for gyroscopic applications. Significant activity addresses multiparameter estimation challenges and non-Hermitian quantum dynamics, while maintaining strong emphasis on diamond-based sensor development for current imaging and biological applications. Scientific Awards: APS Fellow (2023) Ford Professorship (2021) Committed to Caring Award (2018) Merkator Fellowship (2014) Edgerton Professorship (2013) AFOSR Young Investigator Award (2012) ITAMP Postdoctoral Fellowship (2006-2009) Manson Benedict Fellowship (2004) Her research has secured major funding from AFOSR, DFG, and MIT internal programs, supporting both fundamental quantum control studies and applied sensor development. Teaching contributions include graduate courses in quantum technology (22.51) and nuclear physics, recognized by multiple teaching awards including the PAI Outstanding Teacher award (2010) and MIT School of Engineering Graduate Teaching Award (2005). The Quantum Engineering Group operates within MIT's RLE ecosystem, collaborating with the Center for Ultracold Atoms and NSE department to develop integrated quantum architectures. Current projects include neutron-bound state investigations in nanocrystals and virus-detection quantum sensors, leveraging their expertise in spin density manipulation and quantum-classical interface design.

• Theoretical & Computational Chemistry
• Quantum Chemistry
• Protein Circular Dichroism
• +3 more

Dr. David Rogers is a computational chemist at the University of Nottingham , specializing in theoretical chemistry and quantum chemical methods development. His research focuses include protein circular dichroism calculations, targeted covalent inhibitors, and computational modeling for energy materials. Academic appointments at Universities of Edinburgh, Sheffield, and Nottingham PhD in quantum chemistry from University of Manchester Recipient of Carlsberg Foundation Fellowship (2008) Research Interests: Primarily in Theoretical & Computational Chemistry , with specific emphasis on: Quantum chemical methods development Protein-ligand binding dynamics Electronic circular dichroism calculations Materials for energy applications Computational drug design approaches Molecular modeling of nanoscale systems Publication Trends (2019-2024): Recent work shows growing focus on biomedical applications of computational chemistry, particularly in targeted covalent inhibition and aptamer design , alongside traditional strengths in quantum chemical methods and energy materials research. Scientific Awards: Carlsberg Foundation Fellowship (2008) Teaching Activities: Academic tutor for physical chemistry modules (CHEM1011, CHEM2017), lab demonstrator for advanced physical chemistry labs (CHEM3005, CHEM3015, CHEM3027), project supervisor (CHEM3011), and friendly expert for synoptic module NATS4001/LIBA3002.

• Neuroscience
• Biomedical Engineering
• Magnetoencephalography
• +3 more

Joonas Iivanainen is a Postdoctoral Researcher in the Department of Neuroscience and Biomedical Engineering at Aalto University. His research focuses on magnetoencephalography (MEG), magnetic sensor design, and computational modeling of magnetic fields in biomedical contexts. He works with advanced magnetometer technologies, including induction coil magnetometers and optically pumped magnetometers, to improve neural signal acquisition and environmental magnetic sensing. Institution: Aalto University Department: Neuroscience and Biomedical Engineering Role: Postdoctoral Researcher His research explores novel approaches to MEG sensor array design, thermal magnetic noise computation, and magnetic field modeling. Recent publications highlight advancements in single-trial neural response classification, high-sensitivity rf detection, and calibration techniques for optically pumped magnetometers. His work bridges theoretical physics and practical biomedical engineering applications. Key trends in his publications include: Development of on-scalp MEG systems for improved spatial resolution Quantification of thermal noise in conducting materials Integration of active ambient-field cancellation in sensor arrays Comparative studies of OPM and SQUID-MEG technologies Optimization of electromagnetic coil configurations Advancements in generalized spatial-frequency analysis for neural signals

Mark LimesView profile

Associate Professor

• Applied Quantum Mechanics
• Analog Electronics
• Optoelectronics
• +5 more

Mark Limes is an Associate Professor in the Bradley Department of Electrical and Computer Engineering at Virginia Tech. His research focuses on quantum sensing, atomic physics, and portable magnetic/inertial sensing systems. He holds a B.S. from Bowling Green State University (2005) and a Ph.D. from the University of Utah (2013). Key research interests include applied quantum mechanics, optoelectronics, and light-matter interactions. His work emphasizes developing high-sensitivity magnetometers and gradiometers for applications in geophysics, biomagnetism, and quantum technologies. Notable projects include femtotesla-scale gradiometer designs and pulsed magnetometer systems for unshielded environments. Publications highlight innovations in atomic magnetometry, including error-correction algorithms, portable sensor development, and advancements in 3He-129Xe comagnetometry. His work bridges theoretical quantum physics with practical engineering solutions for real-world sensing challenges. No scientific awards were explicitly listed in the provided text. No advising/grant details were mentioned, but his research portfolio indicates active involvement in experimental physics and sensor technology.

Lauri ParkkonenView profile

Professor

• Magnetoencephalography (MEG)
• Optically Pumped Magnetometers
• Social Neuroscience
• +4 more

Lauri Parkkonen is Professor in the Department of Neuroscience and Biomedical Engineering at Aalto University. His research advances non-invasive neuroimaging through innovations in MEG instrumentation, real-time analysis, and hyperscanning techniques to study social interaction, conscious perception, and brain plasticity. Key contributions include: Development of optically-pumped magnetometer arrays for next-generation MEG Pioneering hyperscanning methods for dual-brain social neuroscience Real-time neurofeedback paradigms for plasticity and clinical applications Normative modeling approaches for traumatic brain injury detection Open-source tools for MEG/EEG analysis (MNE-Python) His group studies neural mechanisms of empathy, attention, and cross-species emotion recognition using multivariate decoding. Current projects optimize cortical parcellation for MEG connectivity analysis and develop MRI-free source imaging techniques. Honors include an ERC Starting Grant (2015) and coordination of Finland's functional brain-imaging biobank consortium.

Eugeniy MikhailovView profile

Professor

• Atomic Physics
• Quantum Optics
• Optical Physics
• +3 more

Eugeniy Mikhailov is a Professor in the Department of Physics at the College of William & Mary, specializing in atomic, molecular, and optical physics. His research focuses on quantum sensing, optical magnetometry, and the application of Rydberg atoms in experimental physics. He holds a Ph.D. from Texas A&M University (2003). His work emphasizes innovative techniques for imaging and sensing quantum phenomena, including the development of vector atomic magnetometers based on electromagnetically induced transparency (EIT). Key areas include profiling charged particle beams, analyzing quantum fluctuations, and advancing laser-based gyroscopic systems. Recent efforts explore the use of Rydberg atoms to enhance sensitivity in detecting electromagnetic fields and spatial structures. Publications highlight experimental breakthroughs in quantum noise imaging, spatial mode profiling, and optimizing EIT-based sensors. These contributions bridge fundamental quantum physics with applied technologies for precision measurements and particle detection.

• Space Physics
• Magnetosphere
• Electromagnetic Ion Cyclotron Waves
• +3 more

Hyomin Kim is an Assistant Professor in the Physics Department at New Jersey Institute of Technology (NJIT) and holds a Research Professor appointment at the Center for Solar Terrestrial Research - Big Bear Solar Observatory. Their research focuses on magnetospheric physics, electromagnetic ion cyclotron (EMIC) waves, solar wind interactions, and geospace environment dynamics. Key projects include studying EMIC wave propagation, small-scale magnetic flux ropes in the solar wind, and developing low-cost magnetometer systems for space weather monitoring through citizen science initiatives. Kim leads multiple National Science Foundation-funded projects, including collaborative efforts to establish geospace research facilities in Antarctic regions and investigate ULF wave propagation. Their work emphasizes interhemispheric conjugacy studies, solar wind-magnetosphere coupling, and the development of advanced observational infrastructure. Notable contributions include analyzing the effects of magnetic flux ropes on geospace environments and advancing machine learning techniques for plasma parameter estimation. Recent research highlights include studies on EMIC wave dynamics in the dayside magnetosphere and statistical analyses of open-closed boundary locations using Antarctic magnetometer networks. These efforts aim to improve understanding of Earth's magnetosphere-ionosphere system and enhance predictive capabilities for space weather events.

Xin FanView profile

Associate Professor

• Magnetic Dynamics
• Spintronics
• Condensed Matter Physics
• +3 more

Xin Fan is an Associate Professor in the Department of Physics & Astronomy at the University of Denver. He holds a PhD in Condensed Matter Physics from the University of Delaware (2010). His research focuses on magnetic dynamics, spintronics, and spin-orbit torque phenomena, with particular emphasis on magnetic materials and their applications. He is affiliated with the American Physical Society and IEEE, and actively contributes to the DU Faculty Senate. Research Interests: Magnetic Dynamics | Spintronics | Spin-Orbit Torque | Ferromagnetic Resonance | Thin Film Materials | Quantum Phenomena Recent work emphasizes experimental studies of spin currents, spin-charge conversion in antiferromagnetic materials, and magneto-optic Kerr effect-based measurements. His publications highlight advancements in magnetic sensor design, anomalous spin torque behaviors, and subwavelength microwave imaging technologies. Collaborations span material characterization, device physics, and theoretical modeling of spin dynamics. Labs/Teams: Conducts research in the Physics Department's experimental labs, focusing on magnetic materials characterization and spintronic device development.

Svenja KnappeView profile

Academic

• Quantum Technologies
• Microfabrication
• Magnetic Sensing
• +3 more

Svenja Knappe is an Associate Research Professor at the University of Colorado Boulder, affiliated with the Department of Mechanical Engineering and previously serving as an adjunct professor in Psychology and Neuroscience. She leads research in quantum sensor technologies, particularly microfabricated atomic magnetometers for biomedical, aerospace, and industrial applications. Her work includes developing portable magnetoencephalography (MEG) systems using optically pumped magnetometers (OPMs), enabling non-invasive brain imaging and neurological diagnostics. She co-founded FieldLine to commercialize these innovations and collaborates with the National Institute of Standards and Technology (NIST). Education: B.Sc. (1998) and Ph.D. in Physics (2001) from Rheinische Friedrich-Wilhelms-Universität (Germany). Dissertation focused on dark resonance clocks and magnetometers. Research emphasizes miniaturized quantum sensors for applications ranging from CubeSat-based Earth magnetic field mapping to medical devices like fetal magnetocardiography. Her interdisciplinary approach integrates microfabrication, frequency control, and novel packaging techniques. Ongoing projects include the Compact Spaceborne Magnetic Observatory (COSMO) CubeSat mission and magnetic communication systems using atomic magnetometers. Key collaborations involve the CUBit Quantum Initiative (funded through a seed grant for chip-scale atomic clocks) and the HUNTER sterile neutrino search experiment. She holds patents on atomic magnetometer designs and related technologies.

Julie BertelsView profile

Researcher

• Developmental Cognitive Neuroscience
• Infant Development
• Attentional Processes
• +5 more

Julie Bertels is a developmental cognitive neuroscientist at Université libre de Bruxelles , affiliated with the ULBabyLab (CO3, CRCN) in the Faculty of Psychology and the Laboratoire de Cartographie Fonctionnelle du Cerveau (LCFC) in the Faculty of Medicine. Her research focuses on attentional mechanisms, statistical learning, and their modulation by emotion in early human development, utilizing EEG and MEG neuroimaging techniques. Her work bridges behavioral and neurophysiological approaches, investigating how infants process sensory stimuli and extract environmental regularities. Key themes include the neural basis of visual statistical learning, the role of emotional content in attentional capture, and the neurodevelopmental impacts of prematurity. Recent publications highlight her contributions to advancing optically pumped magnetometer (OPM-MEG) technology for prenatal and infant brain studies, as well as multisensory integration in speech perception. Collaborations span neurodevelopmental disorders, cognitive fatigue, and speech-in-noise perception. Julie supervises doctoral research, including Benocci (2025) on auditory-visual scene analysis and musical skills. Her lab memberships include CO3 , CRCN , and LCFC , integrating psychology, medicine, and engineering perspectives. Current studies examine cortical tracking of speech, statistical learning in premature infants, and the interplay between brain maturation and sensory experience. Her work advances understanding of early cognitive development and neurophysiological methodologies.

Robert MarshallView profile

Associate Professor

• Remote Sensing
• Earth and Space Sciences
• Plasma Physics
• +3 more

Robert Marshall is an Associate Professor and Associate Chair for Graduate Studies in the Department of Aerospace Engineering Sciences at the University of Colorado, affiliated with the Colorado Center for Astrodynamics Research (CCAR). He holds a PhD in Electrical Engineering from Stanford University (2009), an MS (2004), and a BS (2002) from the University of Southern California. His research focuses on remote sensing of the atmosphere, ionosphere, and magnetosphere using optical, radio, and energetic particle measurements, with expertise in plasma physics, numerical simulations, and lightning/meteor observations. Key research interests include: remote sensing technologies, plasma wave interactions, ionospheric dynamics, and space weather impacts. He leads missions like the Canadian RADICALS satellite and the IMPAX CubeSat, advancing understanding of radiation belt loss mechanisms and atmospheric energy input. Marshall has secured significant awards, including the NSF CAREER Award (2021) and the URSI Young Scientist Award (2011). Education: PhD, Electrical Engineering, Stanford University, 2009 MS, Electrical Engineering, Stanford University, 2004 BS, Electrical Engineering, University of Southern California, 2002 His recent work emphasizes planetary radiation belt studies, with contributions to missions targeting Jupiter’s extreme magnetosphere (e.g., COMPASS). Articles highlight advancements in VLF wave propagation modeling, microburst precipitation imaging, and instrument development for space missions. Awards reflect recognition of his contributions to space physics education and research.