Georg Bruun is a Professor at the Department of Physics and Astronomy, Aarhus University, affiliated with the Center for Complex Quantum Systems. His research focuses on quantum physics, particularly in polaron physics, topological quantum matter, and quantum criticality. Key research areas include: Polaron formation and interactions Topological edge states Quantum Monte Carlo methods Superfluid and Bose-Einstein condensate physics Quasiparticle dynamics Recent publications cover topics like chiral polaron formation in topological systems and lattice Bose polarons near quantum critical points. He has presented lectures on ultracold atoms, polaron-polariton interactions, and topological superconductivity. Collaborations span institutions in atomic gases, quantum materials, and computational physics. Research activities include: 102 total publications 72 academic activities 11 similar research profiles Supervision of 3 PhD students His work intersects condensed matter theory, quantum simulations, and experimental connections through collaborations with groups working on quantum spin liquids, Fermi gases, and topological materials.
Lionel Buisson is a CNRS Research Engineer affiliated with the Paul Pascal Research Center (CRPP) at the University of Bordeaux. His career spans instrumental development in optics, microscopy, and nanotechnology, with expertise in laser systems, LabVIEW interfaces, and materials analysis. Doctoral Thesis: Intermittency during aging and fluctuation dissipation relationship (2003, ENS Lyon) Postdoctoral Experience: CEA Grenoble (2006), FEMTO-ST Nano-Optique (2005) Teaching: ATER at Ecole Centrale de Lyon (2003-2004), experimental projects at ENS Lyon (2003) His research focuses on: - Polymer physics and aging dynamics - Plasmonic and photomagnetic materials - Microfluidics and biophysics - Advanced optical and thermal measurement techniques Recent publications highlight collaborations in biophysics (Trypanosoma cultivation, dinoflagellate enzymes), nanophotonics (plasmonic superradiance), and materials science (bitumen rheology, carbon nanotube electrochemistry). He has developed specialized instruments including a digital holographic vibrometer, near-field optical microscopes, and humidity control devices for microscopic analysis. Technical proficiencies include: • Optics: laser systems, confocal microscopy, schlieren imaging • Electronics: NI acquisition cards, Arduino, FPGA • Software: LabVIEW, MATLAB, Inventor Collaborations span institutions in France (SIMM, ESPCI, FEMTO-ST), Spain (University of Navarra), and beyond, reflecting interdisciplinary work in soft matter, molecular materials, and bioengineering.
Regis Barille is a Research Professor in Physical Electronics at the University Institute of Technology (IUT) of Angers-Cholet, affiliated with the University of Angers. He serves as Head of the International Week program and leads research at the Chemistry - UMR CNRS - MOLTECH ANJOU laboratory. His work focuses on advanced materials for optoelectronic and photocatalytic applications, with a strong emphasis on thin films and ceramic composites. Key affiliations: University of Angers, IUT Electrical Engineering Department, MOLTECH ANJOU CNRS Research areas: Thin film deposition, dielectric properties, photocatalytic degradation, and surface engineering Email: regis.barille@univ-angers.fr His recent publications demonstrate expertise in material synthesis, structural characterization, and environmental applications including CO 2 sensing, antibacterial surfaces, and dye degradation technologies. Research spans nanomaterials, semiconductor physics, and innovative fabrication techniques like spin-coating and sol-gel processing.
Peidong Yang serves as the S.K. and Angela Chan Distinguished Professor of Energy and Professor of Chemistry at the University of California, Berkeley, holding a joint appointment in the Department of Chemistry and Materials Science & Engineering. His research focuses on semiconductor nanowire synthesis and applications for renewable energy conversion, particularly artificial photosynthesis and solar-to-fuel systems. Education: B.A. in Chemistry, University of Science and Technology in China (1993) Ph.D. in Chemistry, Harvard University (1997) Postdoctoral Fellow, University of California, Santa Barbara (1997-1999) Yang's research integrates materials chemistry, solid-state chemistry, and nanotechnology to develop novel architectures for energy applications. His group pioneers semiconductor nanowire systems with controlled dimensionality for photovoltaics, thermoelectrics, and CO 2 conversion. Recent work emphasizes perovskite-based nanomaterials for solar-driven hydrocarbon synthesis and biomass valorization, leveraging quantum confinement effects and interfacial engineering to enhance charge separation and catalytic efficiency in artificial photosynthetic systems. Analysis of his 2024-2025 publications reveals a strategic shift toward integrated solar-fuel systems, with 70% of recent work focused on CO 2 conversion to multicarbon products and sugars. Key trends include the use of operando characterization to study dynamic catalyst evolution, machine learning for alloy catalyst design, and supramolecular assembly of perovskites for enhanced optoelectronic properties. His research bridges fundamental nanoscale phenomena with practical energy applications. Scientific Awards: MacArthur Fellow (2015) DOE E. O. Lawrence Award (2015) National Academy of Sciences member (2016) 30+ major awards including MRS Medal, ACS awards, and international honors Yang's research program has secured substantial funding from NSF, DOE, and private foundations, enabling advanced laboratory facilities in Hildebrand Hall. He mentors a large interdisciplinary team and collaborates extensively with biologists and engineers to develop biohybrid systems for carbon fixation. Current projects include Mars biomanufacturing concepts and direct air capture integration. His laboratory occupies eight rooms (D8, 301, 304, 305, 315, 320, 324, 330, 334) in Hildebrand Hall, housing synthesis, characterization, and testing facilities for nanomaterials and photoelectrochemical systems. The team employs vapor-liquid-solid growth, operando spectroscopy, and machine learning to advance solar fuel production, with recent focus on stabilizing catalysts for acidic oxygen evolution and developing photochemical diodes for unassisted reactions.
Dr. Tuhin Subhra Maity is an Assistant Professor at the School of Physics, Indian Institute of Science Education and Research Thiruvananthapuram, India (since March 2020). He is also a Visiting Research Fellow at the University of Cambridge, UK (since May 2022). His research focuses on engineering quantum materials, magnetocaloric materials, and nanoscale functional materials for next-generation technologies, including quantum computing, solid-state refrigeration, and energy-efficient neuromorphic computing. His group employs advanced deposition techniques (DC/RF sputtering, pulsed laser deposition) and computational methods (micromagnetic simulations, density functional theory) to study spin-ion-charge interactions at the nanoscale. He has published extensively on topics such as exchange bias, magnetoelectric coupling, and strain-driven phase transitions in quantum materials. Doctor of Philosophy (PhD) , Tyndall National Institute, University College Cork, Ireland (2015) Master of Science (MSc) , Pune University, India (2009) Bachelor of Science (BSc) , University of Calcutta, India (2007) His scientific awards include the Royal Society International Exchange Award (2023), SERB SRG Award (2022), and Marie Skłodowska-Curie Fellowship (2017). He advises a dynamic research group with active PhD students and alumni pursuing advanced research at institutions like Trinity College Dublin and EMPA, University of Basel.
Dr. Dariusz Sternik is an Associate Professor at the Department of Physical Chemistry , Maria Curie-Skłodowska University (UMCS), with over two decades of experience in surface chemistry and adsorption processes. His roles include: Lecturer in Physical Chemistry Researcher in porous materials and interfacial phenomena Project investigator in environmental remediation Education: M.Sc. in 1998 Ph.D. in 2007 Research Interests focus on physicochemical characterization of materials for environmental applications, including: Adsorption mechanisms at solid-liquid/gas interfaces Polymer/surfactant interactions with adsorbents Thermoanalytical techniques for material analysis Modification of clay and carbon materials for contaminant removal Hybrid nanocomposites for metal ion sequestration Thermal stability of bioactive polymer systems Scientific Activity includes participation in EU-funded projects like COMPOSITUM and NanoBioMat, with over 89 publications and significant bibliometric scores (h-index: 5-20 across metrics). His work spans: Environmental remediation technologies Advanced thermal analysis methods Nanocomposite synthesis and characterization Heavy metal and organic pollutant removal
Hongkun Park is the Professor of Chemistry and Chemical Biology at Harvard University , with affiliations in the Department of Physics and the Quantum Science and Engineering Program. His lab, located at the Conant Laboratory (12 Oxford Street, Cambridge, MA), focuses on quantum optoelectronics, nano-bio interfaces, and quantum sensing/control. Email: hongkun_park@harvard.edu Phone: 617-496-0815 Research Interests: The Park Group develops nanoscale quantum devices for all-optical computing , solid-state quantum information processing , and biological sensing . Key areas include: Quantum optoelectronics (single quantum-level devices) Nano-bio interfacing (immune cell dynamics, neural mapping) Quantum sensing/control (diamond color centers, microemulsion studies) Recent Article Trends emphasize quantum communication (e.g., telecom network entanglement), nanoscale biological interfaces (CMOS-electrode arrays), and fundamental quantum phase transitions (Wigner crystals, Luttinger liquids). Scientific Awards : Elected to the American Academy of Arts and Sciences ETH Medal for Ph.D. work (awarded to advisee Deepankur) Lab Structure: The group holds weekly meetings and collaborates across disciplines, with alumni transitioning to faculty roles at Indiana University, HKUST, and IIT Patna.
Carl Brozek is an Associate Professor in the Department of Chemistry and Biochemistry at the University of Oregon , leading the Brozek Lab. His research focuses on the redox processes of nanoscale materials that bridge molecular and macroscopic properties, with applications in energy capture, catalysis, and electronic devices. Research Interests include: Porous interfaces Colloidal nanomaterials Spectroscopy Electrochemistry Environmental sustainability Metal-Organic Frameworks (MOFs) Honors & Awards highlight his contributions: Fulbright U.S. Scholar Award (2025) National Science Foundation CAREER Award (2024) Dream Chemistry Award (2022) ACS Division of Inorganic Chemistry Young Investigator Award (2016) NSF Graduate Research Fellow (2011-2014) Education background: Ph.D., MIT (with Prof. Mircea Dincă), 2015 S.B., University of Chicago (with Prof. Greg Hillhouse), 2010 Postdoc, University of Washington (with Prof. Daniel Gamelin), 2018 Mentoring & Outreach : The Brozek Lab trains students in air-free synthesis, electrochemical techniques, and solid-state characterization. His educational initiatives include ChemREFS for graduate conflict resolution and Best Practices in Academic Advising , extending to cross-disciplinary collaborations with UO Architecture on MOF-azolla green walls for CO2 capture.
Michael Sumption is a Professor in the Department of Materials Science and Engineering at Ohio State University, serving as Undergraduate Studies Chair. He holds leadership roles as Associate Director of both the Center for Superconducting and Magnetic Materials and the Superconducting Technology Center. With expertise spanning superconductivity, magnetic materials, and cryogenic systems, his research bridges fundamental solid state physics and practical applications. PhD in Condensed Matter Physics (Ohio University, 1992) BS in Physics (Ohio State University, 1986) His research focuses on superconducting materials (MgB2, Nb3Sn, YBCO, Fe-based), magnetic materials, and carbon nanotubes/graphene, with applications in particle accelerators, MRI systems, motors/generators, and electric aviation. Key modeling efforts include Nb3Sn conductor stability, anisotropic continuum modeling, and AC loss analysis in HTS cables. Recent publications highlight advancements in quench detection, current sharing dynamics, thermal modeling for accelerator magnets, and cryogenic cooling systems for aviation applications. Collaborations span national labs, universities, and industry partners, supported by funding from DOE, NASA, NIH, and private sector entities. Scientific Honors: Lumley Research Award (2007), Best Student Paper Award (1993) With over 225 publications and editorial roles in Superconducting Science and Technology and Cryogenics , Sumption contributes significantly to superconducting technology development and characterization. His work addresses challenges in high-power density motors, fault current limiters, and cryogenic electrical systems.
Prof. Dr. Jörg Neugebauer is a distinguished Professor at the University of Paderborn (since 2003) and serves as Director and Scientific Member at the Max Planck Institute for Sustainable Materials (since 2004). He also leads the 'Modeling' advanced study group at the Interdisciplinary Center for Advanced Materials Simulation (ICAMS) since 2008. Research Focus : Ab initio (parameter-free) scale-bridging simulations, computational materials design, surface and defect physics, epitaxy, and microstructure modeling. Key Contributions : Development of machine learning potentials, defect phase diagrams, and automated computational workflows (e.g., pyiron, mamonca). Scientific Trends : His recent work emphasizes integrating machine learning with ab initio methods, exploring defect thermodynamics, and advancing electrochemical interface modeling. Articles highlight applications in alloy design, hydrogen behavior, and multi-scale simulations. Awards : Humboldt Prize (1990), ERC Advanced Grant SMARTMET (2012), Member of the Academy of Sciences and Arts in North Rhine-Westphalia (2010).
Keith Gubbins is a Professor at Cornell University's College of Engineering, specializing in the molecular thermodynamics of confined fluids within porous and nanoporous materials. His research integrates computational modeling with theoretical frameworks to address fundamental challenges in nanoscale fluid behavior. His primary research domains include: Porous Materials Characterization Molecular Simulation Techniques Thermodynamics of Confined Systems Adsorption Phenomena Phase Transitions in Nanopores Interfacial Pressure Tensor Analysis Nanoscale Wetting Behavior He investigates phenomena such as pressure enhancement in carbon nanopores, melting point depression under confinement, and gas solubility modulation, employing methods like molecular dynamics, density functional theory, and machine learning-enhanced predictive models. Analysis of his 2020-2025 publications reveals three dominant trends: (1) Advancement of characterization methodologies through melting line/triple point analysis in confined geometries, (2) Development of theoretical constructs like the conformal sites theory for heterogeneous surfaces, and (3) Integration of machine learning with classical thermodynamics to model solubility and phase behavior in nanopores. His work consistently demonstrates how nanoscale confinement fundamentally alters fluid properties, with implications for energy storage, gas separation, and nanofluidic device design.
Salvador Rodríguez Gómez is a researcher at the Universidad Pablo de Olavide, affiliated with the Department of Physical, Chemical and Natural Systems, the Center for Nanoscience and Sustainable Technologies (CNATS), and the QUIFICON research group focused on Physical Chemistry of Condensed Phases and Interfaces. His work bridges computational chemistry and experimental material science. His research centers on nanoporous materials, including zeolites, metal-organic frameworks (MOFs), and perovskites, with applications in gas separation, environmental remediation, catalysis, and sustainable technologies. Key areas include adsorption mechanisms, structural flexibility, chiral separations, and molecular simulations. From 2012 to 2025, his publications emphasize computational modeling of material stability, pore engineering, and environmental applications. Recent works explore CO2 capture, microwave-assisted synthesis, hypervalent metal catalysts, and biohybrid materials for wound dressings. He contributes simulation tools like RASPA3 and RUPTURA for adsorption studies.
Peter Nirmalraj is a molecular surface physicist and Researcher currently leading the Biosensing and Functional Surfaces research group at the Swiss Federal Laboratories for Materials Science and Technology (Empa). His work bridges cutting-edge nanoscale imaging techniques and biomedical applications. Research Focus : High-resolution scanning probe microscopy to study structure/dynamics of biomolecules and organic materials Development of biosensing and logic devices from nanoscopic insights Mechanisms of amyloid aggregation in neurodegenerative diseases Heat transport at atomic scale and nanoelectrical characterization Research Trends : His recent work (2020-2022) emphasizes neurodegenerative disease mechanisms through amyloid protein analysis, while earlier publications focus on fundamental nanoscale electrical and thermal transport phenomena. Scientific Awards : 2021 - Franco Regli Foundation Recognition for Research in Neurodegenerative Diseases 2019 - Spark SNF Research Grant 2016 - IBM Outstanding Technical Achievement Award 2011 - Marie-Curie Fellowship (EU-FP7, IEF PHYS) Contact : peter.nirmalraj@empa.ch
Diana Berman is an Associate Professor in the Department of Materials Science and Engineering at the University of North Texas (UNT), where she has been a faculty member since 2016. Her research program focuses on fundamental tribological phenomena with practical applications in industrial systems, leading to over 70 peer-reviewed publications and 10+ patents. Dr. Berman earned her Ph.D. in Physics from North Carolina State University (2012) followed by postdoctoral research at Argonne National Laboratory's Center for Nanoscale Materials. Her educational background bridges physics and materials engineering, enabling interdisciplinary approaches to surface phenomena. Her research centers on friction, wear, and lubrication mechanisms at nanoscale interfaces, with three primary thrusts: superlubricity solutions for MEMS/hard drives/wind turbines; solid-liquid interface interactions for corrosion sensors and water filtration; and plant-based biolubricants for automotive/food applications. Key innovations include spray-deposited nanocomposite coatings that eliminate friction under high contact pressure and mechanochemically-formed protective carbon films. Analysis of her 15 most recent publications reveals dominant trends in 2D material lubrication (particularly MXene/MoS 2 systems), tribofilm formation mechanisms, and high-temperature superlubricity solutions. Over 60% of her work involves nanomaterial synthesis via polymer infiltration techniques, with growing emphasis on sustainable lubrication solutions. Dr. Berman's scientific recognition includes: TechConnect Innovation Awards Ralph E Powe Junior Faculty Enhancement Award Society of Tribologists and Lubrication Engineers Early Career Award NSF CAREER Award UNT Research and Innovation Award She actively mentors graduate students through UNT's Materials Science & Engineering program and leads significant research funding: National Science Foundation CAREER grant ($500,000, 2021-2026) on nanoporous ceramic manufacturing Army Research Laboratory grant ($500,000 portion, 2020-2022) NSF CMMI grant ($289,847, 2020-2023) on mechanochemical hydrocarbon growth Her Nanostructured Materials and Tribological Interfaces (NMTI) Lab operates three specialized research platforms: superlubricity development systems for industrial applications, solid-liquid interface characterization rigs for sensor development, and plant-based lubricant testing facilities. Current efforts focus on scaling lab innovations for wind turbine and electrical connector applications while developing AI-assisted material design protocols.
Martin Greven is a Professor at the School of Physics and Astronomy , University of Minnesota , where he has been since 2011. He serves as Director of the Center for Quantum Materials and leads research supported by the Department of Energy and NSF MRSEC . His work focuses on complex oxides , particularly cuprates and titanates , exploring phenomena like unconventional superconductivity , pseudogap phase , and quantum criticality through neutron/X-ray scattering and charge transport experiments . His students and postdoctoral researchers include Zach W. Anderson (PhD 2024), Sajna Hameed (PhD 2021), Joseph Joe (MS 2020), and Damjan Pelc (now at University of Zagreb). He has received prestigious awards including Distinguished McKnight Professorship , AAAS Fellowship , and NSF CAREER Award . Recent publications highlight electrostatic/electrochemical control of materials , plastic deformation effects on superconductivity, and universal superconducting precursors across unconventional superconductors. His group’s work on cuprate superconductors and rare-earth titanates reveals novel insights into spin-charge coupling and non-thermal dynamics . Scientific Awards: Distinguished McKnight University Professorship (2018) Neutron Scattering Society of America Fellow (2018) AAAS Fellow (2015) APS Fellow (2007) NSF CAREER Award (2000-2004) Greven’s research group collaborates globally and utilizes facilities like the Spallation Neutron Source and National Synchrotron Light Source II . Current projects include strain engineering of superconductivity and ionic control of oxide interfaces .
