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Mylonakis MikisView profile

Research Fellow

• Optical design
• Bioimaging
• Mechanical design
• +3 more

Dr. Mylonakis Mikis is a PostDoctoral Fellow at the Institute of Electronic Structure and Laser (IESL) of the Foundation for Research and Technology - Hellas (FORTH), affiliated with the University of Crete. His work focuses on advanced optical systems and bioimaging technologies. Education: PhD in Materials Science and Technology (2024), University of Crete MSc in Materials Science and Technology (2018), University of Crete BSc in Physics (2015), University of Crete Research interests include optical design, wavefront shaping for microscopic imaging, and mechanical design of optical systems. His innovations include a novel adaptive optics illumination device for in vivo imaging and a bimodal optical/optoacoustic microscope. His work bridges biophotonics and quantum magnetometry. Awards: 1st Prize, Science on Stage Europe (2019) 1st Prize, Science on Stage Greece (2018) Key contributions include patents on optical beam control systems and precision measurements. His research spans ultra-cold atom imaging and biomedical applications of optical systems.

Helena KnowlesView profile

Lecturer

• Quantum Physics
• Quantum Sensing
• Nanotechnology
• +3 more

Helena Knowles is a University Lecturer in the Department of Physics at the University of Cambridge and a Royal Society Research Fellow. Her research group focuses on quantum control and quantum imaging at the nanometer scale, particularly using diamond defects for nanoscale sensing in biological and solid-state systems. She leads the Quantum Information and Control group at the Ray Dolby Centre, Cavendish Laboratory. Helena holds a PhD from the University of Cambridge and an MSc from ETH Zurich. She was awarded a Research Fellowship at St John’s College, Cambridge (2014), where she supervised students in nanoscale NMR experiments, and worked as a Research Associate at Harvard University (2017) on single-atom thin materials. Her research bridges quantum physics, nanotechnology, and biophysics, with applications in medical diagnostics and materials science. Key areas of research include quantum metrology, diamond-based sensors, and nanoscale imaging in living systems. Her work has advanced techniques like simultaneous nanorheology and thermometry using diamond quantum sensors, as well as quantum magnetometry for studying antiferromagnetic materials. Awards include the Royal Society Research Fellowship. Her lab develops biocompatible quantum sensors (e.g., Q-BiC chips) and explores applications in biological systems. Current projects emphasize multimodal sensing and precision measurements in complex environments.

Domenico GiardiniView profile

Professor

• Seismology
• Geodynamics
• Earth's mantle and core structure
• +7 more

Domenico Giardini is a Full Professor at the Department of Earth and Planetary Sciences, ETH Zurich , since 1997. He holds a doctorate in Physics from the University of Bologna (1987) and has held academic positions at Harvard University, National Institute of Geophysics in Rome, and University of Rome III. Giardini has directed the Swiss Seismological Service (until 2011) and the Swiss Competence Center for Energy Research – Supply of Electricity (SCCER-SoE). Born: March 19, 1958, Bologna, Italy Education: PhD in Physics, University of Bologna Current Roles: Full Professor, ETH Zurich President, International Association of Seismology & Physics of the Earth Interior (IASPEI) Co-PI, ESA Pathfinder & NASA InSight missions Research Interests span seismology, geodynamics, planetary seismology (Mars), gravitational wave detection, and induced seismicity. His work integrates deep earthquake dynamics, Earth's mantle/core structure, and seismic hazard assessment. Recent Publications focus on Mars impact events, LISA Pathfinder magnetic noise, Rotondo granite stress anisotropy, and BedrettoLab hydraulic experiments, reflecting his interdisciplinary expertise in geophysics and space missions. Scientific Leadership includes coordinating projects for the European Commission, UNESCO, UN, NASA, ESA, and OECD. He co-founded the Global Earthquake Model initiative and directed the UN/IDNDR Global Seismic Hazard Assessment Program. Advising has resulted in over 60 PhD theses completed under his supervision at ETH Zurich since 2010. His grants include Magnetotelluric investigation of active rifting and geothermal resources in Ethiopia (ETH-02 19-1).

Jiri JanousekView profile

Research Fellow

• Quantum Optics
• Quantum Information
• Optomechanics
• +5 more

Dr. Jiri Janousek is a postdoctoral research fellow at the Australian National University (ANU) within the ANU College of Systems & Society , specifically contributing to the Quantum Imaging Group . He focuses on advancing quantum states of light in the spatial domain, particularly in generating squeezed and entangled states, optical detection techniques, and optomechanical systems. His work emphasizes novel methods for simultaneous spatial-mode squeezing and control of optical cavities. He earned his PhD in 2008 from the Technical University of Denmark , where he researched nonclassical quantum states for ultra-sensitive measurements and solid-state lasers in the visible spectrum. His expertise spans optical parametric amplifiers, laser systems, and quantum imaging applications in biological contexts. Research interests include quantum optics, optomechanics, and nonlinear optical systems, with emphasis on spatial-mode engineering and precision measurements. His contributions bridge theoretical and experimental quantum technologies, aiming to push the boundaries of quantum sensing and information processing. Notable research areas include Generation of squeezed light in diverse cavity geometries Optomechanical control of thermal states Entanglement distillation protocols Quantum imaging within living cells

Michael RomalisView profile

Professor

• Atomic physics
• Quantum sensors
• Precision measurement
• +3 more

Michael Romalis is Professor of Physics at Princeton University, specializing in precision atomic physics measurements for fundamental physics investigations and quantum sensor development. Education: Ph.D. in Physics from Princeton University (1997) B.S. in Physics from Illinois Institute of Technology Research Interests: Develops advanced atomic magnetometers, nuclear spin co-magnetometers, and Rydberg atom microwave detectors to probe fundamental symmetries, search for new physics beyond the Standard Model, and create practical quantum sensors. Publication Focus: Recent work establishes tests of Lorentz invariance, sets limits on exotic spin-dependent forces, and advances atomic magnetometer sensitivity for applications in neuroscience and fundamental physics. Honors: Fellow of the American Physical Society (2012) Francis Pipkin Award (2010) Laboratory: Leads experimental research developing quantum sensors with applications ranging from brain imaging to tests of fundamental physics principles. Collaborates on projects pushing the limits of quantum measurement precision.

David KawallView profile

Professor

• Experimental Nuclear Physics
• Atomic Physics
• Particle Physics
• +3 more

David Kawall is a Professor in the Department of Physics at the University of Massachusetts Amherst, affiliated with the College of Natural Sciences. He holds a Ph.D. from Stanford University (1996). His research focuses on experimental nuclear and atomic physics, including studies of proton spin structure, electric dipole moments (EDMs), and muon g-2 experiments. He is a key member of the PHENIX Collaboration at the Relativistic Heavy Ion Collider (RHIC) and leads the CeNTREX project searching for time reversal symmetry violation using TlF molecules. His work combines high-energy physics with precision atomic measurements to explore fundamental symmetries and quantum chromodynamics (QCD). Education: Ph.D., Stanford University (1996) Research Themes: Proton spin puzzle, EDM searches, quark-gluon plasma dynamics Key Collaborations: PHENIX (RHIC), CeNTREX (atomic physics), Muon g-2 (FNAL) His experimental programs investigate gluon contributions to proton spin via RHIC's transversely polarized proton collisions and pursue sub-femtobarn sensitivity in proton/deuteron EDM measurements using storage rings. The CeNTREX effort employs cryogenic TlF molecules to probe nuclear Schiff moments, while the muon g-2 experiment tests Standard Model predictions with 0.20 ppm precision. Teaching excellence has been recognized institutionally.

Giovanni BarontiniView profile

Professor

• Quantum Physics
• Atomic Physics
• Ultracold Atoms
• +3 more

Giovanni Barontini is a Professor of Physics at the University of Birmingham's School of Physics and Astronomy, leading the Atomic Quantum System Group. His research focuses on quantum systems, particularly ultracold atoms, Bose-Einstein condensates, and quantum thermodynamics. He explores phenomena like Fermi acceleration, quantum Zeno effects, and topological states using synthetic dimensions. His work spans experimental and theoretical domains, including quantum sensors for biomagnetism detection, quantum heat engines, and precision measurements of fundamental constants through atomic clock networks. Collaborations involve interdisciplinary projects on quantum control, vortex dynamics, and thermalization processes in trapped atomic systems. Barontini’s group develops advanced optical and magnetic techniques for manipulating quantum states, such as superluminescent diode-based potentials and optically pumped magnetometers. His contributions bridge atomic physics with applications in quantum engineering, biophysics, and metrology.

• Condensed Matter Physics
• Nanotechnology
• Spintronics
• +4 more

Mark Freeman, PhD, is a Professor in the Department of Physics at the University of Alberta's Faculty of Science. His research focuses on nanomagnetic and nanomechanical systems, including mechanical detection of magnetic resonance, spin mechanics, and ultrafast dynamics on the nanoscale. He leads a lab utilizing advanced nanofabrication and measurement tools such as scanning tunneling microscopy and optical microscopy. Education: BSc Physics (Honours), University of Alberta (1981) MSc Physics, Cornell University (1984) PhD Physics, Cornell University (1988) Research Interests: His work explores angular momentum conservation in magnets, Einstein-de Haas effects, and the development of experimental physics curricula. Collaborations include NRC-NANO and the nanoFAB facility. Notable projects include the 'world’s smallest marriage proposal' using molecular-scale carbon monoxide fonts and torque-mixing magnetic resonance spectroscopy. Teaching: He teaches PHYS 397: Projects in Experimental Physics and PHYS 597: Graduate Projects in Experimental Physics , emphasizing hands-on experimental skills for undergraduates and graduate students. Labs & Facilities: Freeman's group uses the Science Hardware Makerspace ('the Shack') to provide students rapid access to advanced fabrication technologies. Research tools include nanomechanical magnetometry, optomechanical sensors, and terahertz pulse imaging.

• Space Physics
• Magnetosphere-Ionosphere Coupling
• Radiation Belt Dynamics
• +4 more

Professor Ian Mann, PhD, FRSC, is a distinguished academic in the Department of Physics within the Faculty of Science at the University of Alberta. His research focuses on experimental and theoretical space physics, with expertise in magnetometry and auroral dynamics. He leads the CARSIMA group, operating world-class ground-based magnetometer arrays and collaborates with NASA and the Canadian Space Agency. His work includes the RADICALS satellite mission to study space weather-climate interactions and the AuroraWatch public outreach initiative. Education: BSc (Hons) Physics with Astrophysics, University of Birmingham (1991) PhD Applied Mathematics, University of St. Andrews (1995) Postgraduate Certificate in Academic Practice, University of York (1999) Research Interests: Space plasma physics, magnetosphere-ionosphere coupling, radiation belt dynamics, solar wind interactions, and energetic particle precipitation. His group investigates phenomena such as auroral substorms, geomagnetically induced currents (GICs), and the role of chorus waves in regulating electron flux in the Van Allen belts. Awards & Grants: Canada Research Chair (2003–2013) Canada's Top-40-Under-40 (2009) Fellow of the Royal Society of Canada (2020) Advising & Projects: Leads the CARSIMA and GHOST-PEPPER research groups, and oversees missions like PEPPER-X and SWEPt for plasma and particle measurements. His work addresses space weather risks to power grids and satellite systems, with a focus on Alberta's geoelectric hazard assessment. Labs & Teams: CARSIMA Group (magnetometry arrays), GHOST-PEPPER Sounding Rocket Team, and collaborations with the Canadian Space Agency on the RADICALS satellite mission.

• Atomic Physics
• Molecular Physics
• Optical Physics
• +7 more

Lincoln Turner is a Senior Lecturer at the School of Physics and Astronomy, Monash University, and holds a Monash Research Fellowship. His research focuses on atomic, molecular, and optical physics, with particular emphasis on ultracold matter, Bose-Einstein condensates, and precision measurements. He pioneered holographic imaging techniques for cold atom clouds and led a team at NIST to achieve the first continuous spin-state measurement in a Bose-Einstein condensate. Current research projects include ultraprecise magnetometry using optically trapped condensates, spin squeezing in spinor BECs, and high-quantum-efficiency photodetectors. Lincoln collaborates with institutions like NIST, University of Melbourne, and international partners on topics ranging from quantum computing to wildlife monitoring systems. His experimental expertise spans laser systems, vacuum engineering, and precision electronics, while theoretical work covers quantum limits of magnetometry and chaos in nonlinear systems. Lincoln offers PhD and honours projects in experimental, theoretical, and computational physics, integrating cutting-edge techniques across disciplines. Key collaborations include the Australian Quantum Gas Microscope initiative and defense-related projects like Agile synthesizers for quantum applications. His work bridges foundational quantum research with practical applications in sensing and technology development.

Trevor HaytonView profile

Professor

• Inorganic Chemistry
• Organometallic Chemistry
• Energy Science
• +6 more

Trevor Hayton is a Professor and Vice Chair of Graduate Student Affairs in the Department of Chemistry and Biochemistry at the University of California, Santa Barbara (UCSB). He holds a Ph.D. from the University of British Columbia (2003) and joined UCSB in 2006. His research focuses on inorganic and organometallic chemistry, particularly in actinide systems, nanomaterials, and energy-related catalysis. Hayton’s work includes pioneering studies on actinide organometallics, uranium oxo functionalization, and the synthesis of atomically precise metal nanoclusters. Education: Ph.D. in Chemistry, University of British Columbia, 2003 (Advisor: Peter Legzdins) B.Sc. in Chemistry and Biology (Combined Honors), University of British Columbia, 1998 Research Interests: Hayton’s lab explores novel metal-ligand multiple bonds (e.g., actinide-carbon, transition metal-oxo), nanocluster assembly (e.g., Cu, Ni systems), and applications in energy science. Key areas include: Actinide chemistry for nuclear waste remediation Bioinorganic studies of high-valent iron/manganese complexes Design of sustainable catalytic systems Mechanistic studies of nitric oxide reduction Publications & Recognition: Over 150 peer-reviewed articles, including high-impact work in JACS , Inorganic Chemistry , and Nature . Notable accolades include a Sloan Fellowship (2010) and promotion to Full Professor (2014). His lab emphasizes interdisciplinary training, with students mastering techniques like X-ray crystallography, NMR, and SQUID magnetometry. Lab & Collaborations: The Hayton Group collaborates with institutions like Los Alamos National Laboratory and the University of British Columbia. Research facilities include advanced spectroscopic equipment and nanocluster synthesis labs. Group activities emphasize teamwork, with regular meetings and field trips fostering a collaborative environment.

Thad WalkerView profile

Professor

• Atomic Molecular and Optical Physics
• Quantum Information
• Rydberg Atoms
• +5 more

Thad Walker is the Vilas Distinguished Achievement Professor in the Department of Physics at the University of Wisconsin–Madison, within the College of Letters and Science. His research lies at the intersection of atomic, molecular, and optical physics and quantum information science. His primary research interests include: Quantum information processing using Rydberg atoms Spin-exchange optical pumping for polarized noble gases Advanced magnetometry techniques Development of quantum sensors and instrumentation The trends in his research, inferred from his group's focus, show a strong emphasis on quantum technologies, particularly leveraging highly excited atomic states for information encoding and high-precision measurement. His work bridges fundamental AMO physics with practical applications in sensing and quantum computing. Thad Walker has received notable recognition, including the Vilas Distinguished Achievement Professorship, though specific scientific awards are not listed in the provided text. He advises graduate students and leads a research group known as The Atom Trainers , where he mentors trainees in experimental quantum physics. While specific grants are not mentioned, his research program is likely supported by federal and institutional funding given the nature of his work. He leads the research group The Atom Trainers , which focuses on experimental techniques in laser cooling, atom trapping, and quantum state manipulation using Rydberg atoms.

• Quantum Control
• Quantum Information Science
• Solid-State Systems
• +4 more

Gurudev Dutt is an Associate Professor in the Department of Physics and Astronomy at the University of Pittsburgh within the School of Arts and Sciences. His research focuses on quantum control and quantum information in solid-state systems, particularly using diamond-based materials to explore quantum coherence and entanglement. He leads the Dutt Lab, which develops hybrid approaches integrating techniques from nuclear magnetic resonance, quantum optics, and nanoscience. Education: PhD in Physics, University of Michigan (2004) MSc in Physics, Tata Institute of Fundamental Research, India (1997) MSc in Electrical Engineering, University of Michigan (1999) Research Interests: Dutt's work emphasizes quantum systems at the nanoscale, including single spins and photon interactions. His lab designs tools for large-scale quantum entanglement and coherent control, with applications in quantum computing, secure communication, and precision metrology. Publications & Awards: NSF CAREER Award (2009) Alfred P. Sloan Fellowship (2010) DOE Early Career Award (2011) Kavli Fellow (2014) His publications span quantum magnetometry, spin qubits, and optical control, with notable work in Nature Nanotechnology and Science . Advising & Outreach: Advises graduate students including Chenxu Liu, Pubudu Wijesinghe, and Ahmed Omran. Engages in educational outreach, including quantum workshops for high school students and public science demonstrations. Labs & Collaborations: Directs the Dutt Lab, collaborating on quantum interfaces and nanoscale sensing. Active in NSF panels and international conferences, including leadership roles at CLEO/QELS and OPTO.

Raisa TrubkoView profile

Assistant Professor

• Quantum Sensing
• Biomagnetism
• Magnetometry
• +4 more

Raisa Trubko is an Assistant Professor of Physics at Worcester Polytechnic Institute (WPI), leading the WPI Quantum Sensing group. She specializes in experimental quantum physics, focusing on quantum sensing techniques using nitrogen-vacancy (NV) defects in diamond to image magnetic fields with high spatial resolution. Her work bridges quantum instrument development and applications in biomagnetism and novel material studies. Education: Ph.D. in Optical Sciences from the University of Arizona (NSF Graduate Research Fellowship recipient), BS in Optics and BA in Physics from the University of Rochester. Notable academic history includes postdoctoral research at Harvard University and visiting fellowships at the Vienna University of Technology and Harvard's departments of Physics and Earth and Planetary Sciences. Research Interests: Quantum Sensing, Biomagnetism, Paleomagnetism, and applications of machine learning in physics. Her lab, Quantum Sensing Lab (Olin Hall 017), develops tools for high-resolution magnetic field imaging and explores their use in geoscience and material science. Her scholarly contributions span quantum diamond microscopy, stress analysis in diamond crystals, and dark matter detection via electron microscopy. Recent work includes collaborations on inclusivity in academia, as co-author of a study on syllabus design published in Nature's Humanities and Social Sciences Connections. Grants/Awards: NSF Graduate Research Fellowship. Media recognition includes features in Inside Higher ED and Pittsburgh Post Gazette for her role in WPI's 2020 faculty expansion and DEIJ research initiatives.

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