Earth Rotation Professors and Supervisors

Jeffrey QuilliamView profile

Professor

University of SherbrookeCanada

Jeffrey Quilliam serves as Professor and Department Director in the Department of Physics at the University of Sherbrooke, where he leads experimental research on quantum materials using nuclear magnetic resonance (NMR) and muon spin rotation (µSR) techniques at cryogenic temperatures. His educational credentials include: Master of Science in Physics, University of Waterloo (2006) Doctor of Philosophy in Physics, University of Waterloo (2010) Postdoctoral Fellowship, Laboratoire de Physique des Solides, Université Paris-Sud (2010-2012) Professor Quilliam's research program investigates novel magnetic phenomena in geometrically frustrated systems, with particular focus on quantum spin liquids in rare-earth magnets. His experimental approach combines thermodynamic measurements with local probes to characterize exotic quantum phases at millikelvin temperature regimes, contributing to fundamental understanding of quantum magnetism and topological matter. No scientific awards or specific grant information are documented in the provided materials. Regarding academic mentoring, the available text does not specify any graduate students or postdoctoral researchers under his supervision.

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Konstantin ZioutasView profile

Professor

Max Planck Institute for ChemistryGermany

Konstantin Zioutas is a Professor at the European Organization for Nuclear Research (CERN) in the Physics Department (PH) in Geneva, Switzerland. He leads research efforts in dark matter detection, particularly through the CAST (CERN Axion Solar Telescope) experiment and its CAST-CAPP extension. His research focuses on astroparticle physics with emphasis on: Dark matter detection through gravitational focusing effects Axion searches using helioscopes and haloscopes Planetary relationships in dark matter streams Interdisciplinary connections between dark matter and biological phenomena Solar and atmospheric anomalies as potential dark matter signatures Professor Zioutas's recent publications reveal a strong trend toward detecting dark matter through its gravitational interactions with planetary bodies, creating detectable flux enhancements. His work bridges particle physics, astronomy, and even biology, with studies on planetary periodicities in human conception rates and melanoma incidence. Among his notable achievements is the Engin ARIK award from the Turkish Physical Society in 2021. His work has resulted in 271 publications with over 8,800 citations. Professor Zioutas actively leads the CAST-CAPP detector project, which has established new upper limits on axion-photon coupling. He has been instrumental in extending CAST's capabilities through different buffer gases to search across various axion mass ranges. His research group investigates both theoretical frameworks and experimental techniques for detecting axions and other dark matter candidates. The research team explores how the Sun and planets might act as natural lenses for dark matter streams, potentially creating detectable signatures in various terrestrial and solar phenomena that have previously lacked conventional explanations.

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Gholamhossein BagheriView profile

Researcher

Max Planck Institute for Dynamics and Self-OrganizationGermany

Gholamhossein Bagheri is a Scientist and Group Leader at the Max Planck Institute for Dynamics and Self-Organization in Göttingen, Germany, where he heads the Turbulence and Particles in Fluids research group within the Laboratory for Fluid Physics, Pattern Formation and Biocomplexity (LFPB). His research focuses on the complex physics of particle-laden turbulent flows across environmental, atmospheric, and biological systems. Dr. Bagheri's research spans multiple interconnected domains of fluid physics with significant real-world applications. His primary areas of investigation include: Cloud physics and aerosol-cloud interactions, particularly their role as major sources of uncertainty in weather models and climate projections Atmospheric transport of non-spherical particles such as volcanic ash, microplastics, pollen, and snowflakes Indoor air quality dynamics and the spatio-temporal evolution of respiratory aerosols relevant to infectious disease transmission Development of advanced measurement techniques for studying particle-laden flows in both laboratory and field conditions Analysis of Dr. Bagheri's publication record reveals a trajectory from fundamental fluid dynamics toward increasingly applied research addressing critical environmental and public health challenges. His work on respiratory particle transmission during the COVID-19 pandemic provided key evidence for mask efficacy that influenced policymakers and the public. His research consistently tackles significant uncertainties in atmospheric science while developing innovative instrumentation to bridge laboratory and field measurements. Dr. Bagheri leads an active research team that has developed several groundbreaking measurement platforms including the Max Planck CloudKite (MPCK), the HoloTrack instrument for cloud droplet measurements, and the WinDarts system for atmospheric turbulence measurements. His group has conducted major field campaigns such as the Pallas Cloud Experiment (PaCE) in September 2022 and IMPACT (In-situ Measurement of Particles, Atmosphere, Cloud, and Turbulence) from May to June 2024, where up to six second-generation WinDarts units were successfully deployed over Pallas, Finland.

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Shota NakamuraView profile

Assistant Professor

Nagoya Institute of Technology (NIT)Japan

Shota Nakamura is an Assistant Professor at Nagoya Institute of Technology's Graduate School of Engineering, specializing in condensed matter physics with a focus on chiral magnets and strongly correlated electron systems. He holds a PhD from the University of Tokyo (2018) and completed his undergraduate and master's studies at Hokkaido University. His research primarily investigates chiral magnetic materials, particularly rare-earth intermetallic compounds like DyNi 3 Al 9 , GdNi 3 Ga 9 , and YbNi 3 Al 9 , examining their magnetic structures, phase transitions, and electronic properties. His work combines experimental techniques including neutron scattering, X-ray diffraction, specific heat measurements, and magnetization studies to understand the complex magnetic ordering in these materials. Analysis of his recent publications reveals a strong focus on chiral helical magnetic structures, quadrupolar ordering phenomena, and the relationship between crystal symmetry and magnetic properties in rare-earth compounds. His research demonstrates expertise in both fundamental magnetic phenomena and the synthesis of specialized magnetic materials. 2019 Highly Cited Article of JPSJ (2020) - Giant Hall Resistivity and Magnetoresistance in Cubic Chiral Antiferromagnet EuPtSi 2019 Highly Cited Article of JPSJ (2020) - Field-rotational Magnetocaloric Effect Actinides2017 Student Poster Award (2017) - Magnetization Study on the Ising Ferromagnet URhGe Multiple Editors' suggestions from Physical Review B (2017) Dr. Nakamura leads several competitive research projects including 'Microfabrication of Chiral Helical Magnets and Cross-Correlation Phenomena' (Tatematsu Foundation, 2024-2027) and 'Control of Helical Period in Chiral Magnets for Electrical-Magnetic Cross-Correlation' (Hibi Foundation, 2024-2025). He is an active member of The Physical Society of Japan and frequently presents his work at international conferences including the International Conference on Magnetism.

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Sebastian Herbert LorekView profile

Researcher

University of CopenhagenDenmark

Sebastian Herbert Lorek serves as an External Researcher and Academic employee at the Centre for Star and Planet Formation within the Globe Institute at the University of Copenhagen. He is a postdoctoral researcher in Anders Johansen's Planet Formation Group, focusing on computational astrophysics related to planetary system origins. His institutional base at Øster Voldgade 5-7, Copenhagen, supports his active research profile evidenced by multiple recent publications in high-impact journals. Dr. Lorek's research centers on numerical simulations of planet formation mechanisms, including gravitational collapse of pebble clouds, dynamics of planetesimal accretion, and formation pathways for Super-Earths in systems with cold giants. He investigates UV processing effects on icy pebbles in turbulent protoplanetary disks and develops computational methods for modeling planetesimal dynamics. His work bridges theoretical astrophysics and high-performance computing to address fundamental questions about planetary system evolution. Analysis of his 2020-2025 publications reveals consistent specialization in computational planet formation, with recurring themes in pebble accretion efficiency, disk-planet interactions, and turbulent disk dynamics. His research demonstrates methodological innovation in N-body simulations and hydrodynamical modeling, contributing to understanding diverse planetary architectures from early solar system evolution to exoplanet systems. No scientific awards were mentioned in the available information. Details regarding student advising or research grants were not provided in the source material. Dr. Lorek is an integral member of the Planet Formation Group at the Centre for Star and Planet Formation, collaborating with researchers including Anders Johansen, Michiel Lambrechts, and international co-authors. His work leverages advanced computational infrastructure to model complex astrophysical processes in protoplanetary environments.

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