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Professor Christopher Foot is a Professor of Physics and Perenco Fellow and Tutor in Physics at St Peter’s College, University of Oxford. He holds a B.A. and D.Phil. in Physics from Oxford and has held roles including Tutorial Fellow at St Peter’s since 1991 and Senior Tutor from 2010–2014. His research focuses on ultracold atomic gases, Bose-Einstein condensation, and quantum systems manipulation using magnetic and radio-frequency fields. He leads experimental efforts to study large quantum systems and has pioneered techniques involving electric fields for ion confinement. Teaching responsibilities include Quantum Mechanics, Atomic/Molecular/Laser Physics, and graduate courses on Ultracold Quantum Matter. He coordinates the fourth-year option on Lasers and Quantum Information Processing. Awards include the Lindemann Trust Fellowship during his time at Stanford University. His work bridges fundamental quantum physics with advanced experimental techniques, enabling precise control of atomic systems. Collaborations involve developing novel methods to probe many-body quantum phenomena at extreme temperatures (tens of nanokelvin). Current projects aim to extend quantum system studies to biomolecular ions, leveraging interdisciplinary approaches.

• Ultracold Quantum Matter
• Atomic Physics
• Laser Cooling and Trapping
• +3 more

Professor David McGloin is a Personal Chair and Head of School at the School of Natural and Computing Sciences, University of Aberdeen, a position he has held since September 2022. He is actively involved in research, teaching, and leadership, supervising PhD students and developing new courses in optics. His academic journey includes faculty roles at the University of Dundee and the University of Technology Sydney, where he served as Director of Research Programs in the Faculty of Engineering and IT. MSci (Hons) in Laser Physics and Optoelectronics, University of St. Andrews (1997) PhD in Physics, University of St. Andrews (2001) David McGloin's research centers on optics, particularly optical trapping, beam shaping, and their applications in biomedical and environmental sciences, including aerosol analysis and biophotonics. He also explores THz beam shaping and microfluidics. His work bridges physics, engineering, and life sciences, with a strong emphasis on experimental and computational photonics. His recent publications reveal a consistent focus on optical manipulation techniques, especially using Bessel beams and holographic methods, with applications in aerosol dynamics, single-pixel imaging, and biomedical force measurements. The trend shows increasing interdisciplinary collaboration, integrating optics with immunology, environmental science, and advanced manufacturing. Royal Society University Research Fellowship (2003) McGloin has supervised numerous PhD and postgraduate students and has led major research initiatives across institutions. His leadership roles include Head of Physics and Associate Dean for Research at Dundee, and Director of Research Programs at UTS. He has secured significant research funding, though specific grants are not detailed in the text. He is currently accepting PhD students in physics, particularly in experimental or computational optics and photonics. He is a member of professional bodies including the Institute of Physics (MInstP), Senior Member of Optica, and Chartered Physicist (CPhys). His research group focuses on developing novel optical tools for scientific and industrial applications, with strong ties to interdisciplinary teams in biophysics and environmental monitoring.

• Optics
• Photonics
• Optical Trapping
• +9 more

A.L. Cridland is a Professor in the Department of Physics at Swansea University, affiliated with the School of Biosciences, Geography and Physics. Their research focuses on antimatter physics, quantum technology, and particle trapping, with significant contributions to the CERN AD/ELENA and ALPHA-2 experiments. Key areas include antihydrogen trapping, laser cooling, and precision spectroscopy of antimatter. Research interests span antiproton and positron dynamics, magnetic confinement systems, and cryogenic techniques for antimatter production. Ongoing projects involve designing novel beamlines, improving Penning-Malmberg trap performance, and exploring gravitational effects on antimatter through free-fall experiments. Publications highlight advancements in quantum computing components (e.g., planar ion traps) and superconducting magnetic field systems. Collaborations with CERN emphasize experimental precision in measuring fundamental properties of antimatter, contributing to tests of CPT symmetry and gravitational behavior predictions.

• Antimatter Physics
• Quantum Physics
• Particle Physics
• +3 more

Stefan Truppe is a Senior Lecturer in the Department of Physics at Imperial College London, affiliated with the Faculty of Natural Sciences. His research focuses on ultracold matter created using advanced laser technologies, particularly in the study of atoms and diatomic molecules near absolute zero. This work explores fundamental physics, quantum technology applications, and quantum chemistry. He leads experimental efforts in laser cooling, molecular spectroscopy, and precision measurements using cryogenic buffer gas beams and optical trapping techniques. His research groups include the Quantum Optics and Laser Science Group, Quantum Technology for Fundamental Physics, and the Centre for Cold Matter. Key areas involve creating and manipulating ultracold molecular ensembles for testing fundamental symmetries and developing quantum technologies. Notable experimental setups include magneto-optical traps and microwave cavities optimized for molecular trapping and spectroscopy. Recent work emphasizes hyperfine-resolved spectroscopy of species like MgF and AlF, studying collision dynamics with cryogenic helium, and developing buffer gas beam sources for precise molecular control. His publications consistently address laser-driven molecule manipulation, isotopic shift analysis, and novel cooling methods pushing quantum state control limits.

• Atomic, Molecular, Nuclear, Particle and Plasma Physics
• Quantum Physics
• Lasers and Quantum Electronics

Professor Brianna Heazlewood, a Professor of Chemical Physics in the Department of Physics at the University of Liverpool (Faculty of Science and Engineering), leads the Cold Chemical Physics Group. She joined Liverpool in 2021 as an EPSRC Early Career Fellow after working at the University of Oxford's Department of Chemistry. University of Sydney (BSc and PhD) University of Oxford (postdoctoral research) Her research focuses on gas-phase reactions involving ions and radicals at temperatures below 1 Kelvin, utilizing laser cooling, ion trapping, and external fields to unravel reaction mechanisms. These studies impact atmospheric chemistry, interstellar medium processes, and combustion research through interdisciplinary approaches combining physics, chemistry, and computational techniques. Recent publications highlight advancements in magnetic guides for radical beams (2020), inverse kinetic isotope effects in ion reactions (2021), low-temperature dynamics of paramagnetic species (2022), and applications of machine learning to ion crystal analysis (2025). Her work also explores surface interactions through collaborations with Heriot-Watt University. Blavatnik Awards for Young Scientists (2025) Zdeněk Herman Young Scientist Prize (2024) Philip Leverhulme Prize (2022) Marlow Award (2021) Henry Moseley Medal (2020) Professor Heazlewood supervises PhD students Paul Regan, Lucy Morris, and Kyriaki Vourka while fostering a supportive research environment. She holds major grants including an ERC Starting Grant (2021-2026) and Leverhulme Trust projects (2023-2025, 2023-2027) to study isotope effects and reaction control of paramagnetic species. The Cold Chemical Physics Group collaborates with institutions like Charles University Prague, JILA/University of Colorado, KU Leuven, and the Hartree Centre. Their research employs advanced detection methods such as imaging and time-of-flight mass spectrometry alongside theoretical simulations.

• Chemical Physics
• Gas-phase Reactions
• Cold Physics
• +10 more

Professor Stefan Eriksson is a faculty member in the School of Biosciences, Geography and Physics at Swansea University, where he holds the rank of Professor of Physics. His research focuses on fundamental physics experiments involving antimatter and ultracold matter, particularly within the ALPHA collaboration at CERN. He received his PhD from the University of Helsinki and spent extensive time at Imperial College London before joining Swansea in 2007. His work includes precision measurements of antihydrogen properties, aiming to compare them with hydrogen to test fundamental physics principles. Recent highlights include leading efforts in antihydrogen spectroscopy with unprecedented precision (reaching parts per trillion) and developing techniques for laser cooling of antihydrogen. Eriksson’s research also explores quantum technologies, such as nanoscale optics and chip-scale devices for quantum information processing. He has authored over 150 peer-reviewed articles and co-edited the book Antihydrogen and Fundamental Physics . Awards include a Leverhulme Research Fellowship (2014–2016). His supervision includes multiple PhD students working on antihydrogen synthesis, trapping, and gravity measurements. Collaborations span international teams at CERN and other institutions.

• Atomic Physics
• Antihydrogen
• Quantum Optics
• +4 more

Professor Michael Tarbutt is a Professor of Experimental Physics at the Department of Physics, Faculty of Natural Sciences, Imperial College London. His research focuses on ultracold atoms and molecules for quantum science, tests of fundamental physics, and applications in quantum computing and precision measurement. He leads a group pioneering laser cooling of molecules to microkelvin temperatures and trapping techniques to study quantum degeneracy and many-body physics. His work includes hybrid quantum systems combining molecules and Rydberg atoms, and collaborations such as QSNET (molecular clocks for fundamental constants) and AION (atom interferometry for dark matter and gravitational waves). Key affiliations include the Centre for Cold Matter, Quantum Engineering and Technology Centre, and Quantum Optics and Laser Science Group. Research interests span atomic, molecular, and optical physics, with emphasis on precision experiments like the electron’s electric dipole moment (eEDM) measurement and quantum technologies. Education: Not explicitly stated in text, but inferred expertise via research contributions. Collaborations: QSNET, AION, and international particle physics strategy groups. Labs/Teams: Experimental groups focused on ultracold molecule trapping, quantum simulation, and fundamental symmetry tests. Publications emphasize ultracold molecule trapping, eEDM experiments, quantum gate implementations, and precision spectroscopy. Ongoing projects include developing hybrid quantum systems and ultra-stable molecular clocks.

• Quantum Physics
• Atomic, Molecular, and Optical Physics
• Ultracold Atoms and Molecules
• +7 more

Professor Tim Freegarde is a faculty member at the University of Southampton, affiliated with the Quantum, Light and Matter Group . His research focuses on quantum technology, atom interferometry, and optical physics, with particular emphasis on cold atom systems and their applications in precision measurement. He leads and collaborates on major projects including the EPSRC Centre for Doctoral Training in Quantum Technology Engineering (CDT in QTE), and has contributed to initiatives like the Interferometric fidelity for gravity gradiometry and EPSRC Optical Cooling projects. His research interests span atom interferometry design, quantum sensor development, laser trapping techniques, and optimal control of atomic systems. Current PhD students include Uluk Rasulov (Chemistry), Joel Abraham (Physics), Anupama Acharya (Chemistry), Alfie Preston (Physics), and Thomas Roe (Quantum Technology Engineering). Recent publications emphasize optimization of interferometric techniques, pulse sequences for enhanced sensitivity, and novel applications of cold atom systems. Collaborations involve institutions across multiple disciplines, reflecting his role in interdisciplinary quantum research initiatives.

• Quantum Technology
• Atom Interferometry
• Optical Physics
• +3 more

Dr. James Bateman is a Lecturer in the Physics Department at Swansea University, affiliated with the School of Biosciences, Geography and Physics. His research focuses on quantum optomechanics, levitated systems, and quantum measurement techniques, with contributions to projects like the MAQRO research campaign. He teaches modules such as Computational Physics I (PH-204) and Condensed Matter Physics II (PH-307). Research Interests : Dr. Bateman's work explores quantum phenomena in macroscopic systems, including optomechanical cooling, gravitational effects on quantum states, and interferometric methods for detecting dark matter and quantum collapse models. His experiments often involve levitated nanoparticles and cold atoms, pushing the boundaries of quantum technology and foundational physics. Supervision & Collaboration : He currently supervises PhD students on projects such as nanoparticle manipulation for quantum systems and optomechanical sensing technologies. Past students have worked on suppressing Rayleigh scatter and Bayesian inference in optomechanical systems. Collaborations span international teams, including MAQRO's efforts to test macroscopic quantum behavior. Labs & Teams : Dr. Bateman is part of Swansea University's quantum research groups, contributing to facilities and initiatives advancing optomechanics and quantum optics. His research aligns with the university's strategic focus on quantum technology and fundamental physics inquiries.

• Quantum Optomechanics
• Quantum Physics
• Interferometry
• +3 more

Professor Jeremy Hutson is a theoretical physicist and chemist at Durham University , holding joint appointments as Professor in both the Department of Chemistry and the Department of Physics . He is a Fellow of the Royal Society (FRS) and a leading expert in the theory of ultracold molecules, intermolecular forces, and quantum scattering. Education & Career: While specific degrees are not listed, his extensive publication record, prestigious awards, and joint professorships indicate a long and distinguished academic career. His research spans decades and has been foundational in the theoretical understanding of ultracold molecular systems. Research Interests: His work focuses on theoretical molecular physics , chemical dynamics , and intermolecular forces , particularly in the context of ultracold and cold molecules . He investigates quantum phenomena such as Feshbach resonances , sympathetic cooling , quantum chaos , and microwave control of molecular systems. His theoretical models are instrumental in guiding experimental efforts in creating and manipulating ultracold molecular states for quantum computing, simulation, and precision measurement. Scientific Awards & Recognition: Joseph Thomson Medal and Prize – Institute of Physics (2016) Tilden Prize – Royal Society of Chemistry (2011) Fellow of the Royal Society (FRS) – Elected 2010 Humboldt Research Award – 2010 Kolos Medal – University of Warsaw & Polish Chemical Society (2007) Computational Chemistry Award – Royal Society of Chemistry (2007) Grants & Collaborations: His work is supported through international collaborations with leading experimental groups in Colorado, Innsbruck, Berlin, and beyond. His theoretical frameworks are critical in interpreting experimental data and designing new experiments in ultracold physics. Labs & Tools: He is the co-developer of widely used computational packages such as MOLSCAT , BOUND , FIELD , and Diatomic-py , which are essential for calculating bound states, collision properties, and hyperfine structures in ultracold systems.

• Theoretical Molecular Physics
• Chemical Dynamics
• Intermolecular Forces
• +7 more

Dr. Ruth Le Sueur is a Research Fellow in the Department of Chemistry, specializing in quantum physics and molecular physics. Her work focuses on ultracold atomic and molecular systems, quantum scattering, and computational modeling. Institution: Affiliated with the Department of Chemistry Role: Research Fellow Her research spans quantum mechanics, atomic physics, and chemical physics, with a focus on: Ultracold molecule creation Feshbach resonance manipulation Quantum scattering dynamics Optical trapping techniques Computational modeling of molecular interactions STIRAP and precision spectroscopy Recent publications highlight her contributions to merging optical tweezers, shielding molecular collisions, and refining interaction potentials. She collaborates on developing computational tools like BOUND , FIELD , and MOLSCAT for quantum state calculations.

• Quantum Physics
• Atomic Physics
• Molecular Physics
• +3 more

Dr. Alexander Guttridge is a Royal Society University Research Fellow in the Department of Physics at Durham University. His experimental research focuses on ultracold quantum systems, specializing in Rydberg molecules and optical tweezer manipulation for quantum information applications. He is an active member of Durham's Quantum Light and Matter research group, contributing to cutting-edge advancements in atomic and molecular physics. Guttridge's research centers on quantum control of individual molecules using optical tweezer arrays, with emphasis on Rydberg interactions, entanglement preservation, and quantum state transfer. His work explores two-species systems (particularly cesium and ytterbium compounds) to investigate novel quantum phenomena including charge-dipole blockade, ultralong-range molecular bonds, and Feshbach resonances. This research bridges atomic physics, quantum optics, and quantum computing with direct implications for quantum simulation and information processing. His 12 publications from 2018-2025 reveal a clear progression from foundational spectroscopy of CsYb molecules toward sophisticated quantum control techniques. Key trends include the development of optical tweezer assembly methods for Rydberg molecules, demonstration of long-lived entanglement in magic-wavelength traps, and innovations in quantum state transfer through noise cancellation. These works consistently advance experimental capabilities in ultracold molecular physics while targeting quantum computing applications. Scientific Awards: Royal Society University Research Fellowship Guttridge's research is supported by his prestigious Royal Society fellowship and collaborative grants within Durham's Quantum Light and Matter group. While no formal advisees are listed in the provided materials, his publications indicate extensive collaboration with senior researchers including S. L. Cornish. His work receives significant funding through UK research councils and the Royal Society's early-career support programs. As a core member of Durham University's Quantum Light and Matter group, Guttridge operates within a world-class experimental facility for ultracold quantum gas research. The group maintains advanced laser systems for optical tweezer manipulation, Rydberg excitation, and quantum state measurement, with infrastructure supporting multi-species quantum gas experiments. Current efforts focus on scaling molecular quantum systems for practical quantum information applications.

• Ultracold Molecules
• Rydberg Molecules
• Quantum Control
• +5 more

Professor Matthew Jones is the Chair of Health & Safety and a Professor in the Department of Physics at Durham University . His work bridges experimental and theoretical research in quantum physics, atomic physics, and precision spectroscopy.

• Quantum Physics
• Atomic Physics
• Laser Spectroscopy
• +4 more

William Bertsche is Reader in Accelerator Physics at the University of Manchester's School of Physics and Astronomy and the Cockcroft Institute. As Deputy Spokesperson of the ALPHA Collaboration at CERN, he studies fundamental properties of antimatter through precision measurements of trapped antihydrogen. His research focuses on plasma physics and accelerator technologies for antihydrogen synthesis, trapping, and measurement. Current work includes gravitational studies of antimatter and development of novel particle sources. Bertsche teaches 'Physics of Energy Sources' and supervises graduate research in particle acceleration and plasma physics. He coordinates technical operations for antihydrogen experiments advancing tests of fundamental symmetries.

• Antimatter Physics
• Plasma Physics
• Particle Acceleration
• +2 more

Dr. Tiffany Harte is a Researcher at the Department of Physics, University of Cambridge, affiliated with the Cavendish Laboratory. She leads research in quantum technologies, particularly atom interferometry and ultracold atomic systems. Her work focuses on experimental and theoretical studies of quantum phases in optical lattices, dark matter detection, and gravitational wave sensing. She contributes to major initiatives like the AION project (ultra-cold strontium laboratories) and AEDGE (atomic experiments in space). Her research interests span quantum simulation of frustrated systems, negative temperature states in bosonic systems, and precision measurement techniques. She explores novel geometries like kagome lattices and triangular optical setups to study exotic quantum phenomena. Recent efforts include developing high-precision atom interferometers for fundamental physics experiments and advancing optical lattice engineering for quantum many-body studies. Dr. Harte’s publications reflect her interdisciplinary approach, bridging atomic physics with condensed matter and astrophysics. She has contributed to workshop summaries on terrestrial atom interferometry advancements and designs for ultra-high vacuum systems critical to precision experiments. Her work is supported by collaborations across physics disciplines at Cambridge and beyond. She currently holds no listed scientific awards but is actively involved in pioneering research projects shaping quantum technologies.

• Quantum Physics
• Condensed Matter Physics
• Atomic Physics
• +6 more