Harvey B. Meyer is a Professor of Theoretical Physics at Johannes Gutenberg University Mainz since 2014. Previously, he held positions including Junior Professor at Mainz (2010), Fellow at CERN's Theoretical Physics Division (2009), Research Scientist at MIT (2008), and postdoctoral roles at MIT (2006-2008) and DESY (2004-2006). He earned his D.Phil. in Theoretical Physics from the University of Oxford (2001-2004) and a Diplome de Physique from the University of Lausanne (1996-2001). His research focuses on lattice field theory, QCD phase diagrams, thermal field theory, and hadron structure. He leads the NEPhEuQCD collaboration and has received the ERC Consolidator Grant (2018) for the SIMDAMA project. Meyer teaches courses in theoretical physics and mathematical methods at Mainz, including 'Theoretische Physik 4' and 'Mathematische Rechenmethoden'. His work integrates advanced computational techniques to address fundamental questions in particle and nuclear physics. Key achievements include pioneering studies on the muon's anomalous magnetic moment, hadronic light-by-light scattering, and quark-gluon plasma dynamics. Collaborations include MIT, CERN, and institutions globally through lattice QCD projects. His lab and team contributions are central to the PRISMA+ Cluster of Excellence at Mainz.
Catherine Pinel is a Research Director (DR2) at the Institute for Research on Catalysis and Environment of Lyon (IRCELYON, UMR 5256), a joint research unit of the French National Center for Scientific Research (CNRS) and Claude Bernard University Lyon 1. She has held this senior research position since October 2008, following progression from CR1 (1998-2008) and CR2 (1994-1998) roles at the same institution. Her academic journey includes postdoctoral research at Cambridge University (1992-1993) under Professor S.V. Ley and with Professor M. Lemaire (1993-1994). Her educational foundation includes: Diplôme Universitaire de Technologie in Chemistry from Paris XI University (1986) Engineering Degree from École Nationale Supérieure de Chimie de Paris (1989) Advanced Studies Diploma in Organic Chemistry from Paris VI University (1989) PhD in Organic Chemistry from Paris VI University (1992) on chiral ruthenium complexes and enantioselective reductions Habilitation à diriger des recherches from Lyon I University (1999) on catalysis and fine chemistry Dr. Pinel's research pioneers sustainable catalytic processes with emphasis on biomass valorization, green chemistry, and heterogeneous catalysis. Her work bridges fundamental catalyst design with industrial applications, particularly in hydrogenation, oxidation, and biorefinery processes. Current focus areas include catalytic conversion of biomass-derived platform molecules (glucose, succinic acid, polyols), development of bimetallic catalysts, and valorization of hemicellulose streams. Her approach integrates advanced catalyst characterization with reaction engineering to create environmentally benign chemical transformations. Analysis of her recent publication trajectory (2019-2025) reveals evolving expertise from fundamental organometallic chemistry toward applied sustainable catalysis. Key trends include increasing focus on biomass-derived feedstocks (glucose, succinic acid, polyols), development of metal-carbide/nitride catalysts, and optimization of aqueous-phase reactions for industrial biorefineries. Her work demonstrates strong interdisciplinary collaboration across catalysis, materials science, and green chemistry, with growing emphasis on circular economy principles and renewable chemical production. No scientific awards were explicitly mentioned in the source materials. Dr. Pinel actively contributes to academic training through graduate instruction at University of Lyon (Master 2 'Catalysis and Physical Chemistry' since 2007) and University of Savoie (M2 courses in New Catalysts in Organic Chemistry since 1999 and Coordination Chemistry since 2012). While specific grant details aren't provided, her extensive publication record across high-impact journals indicates sustained research funding. She maintains collaborative networks within IRCELYON and internationally, particularly in biomass conversion and catalyst characterization. As a core researcher at IRCELYON (celebrating 60 years of catalysis research in 2021), she operates within a world-class facility housing specialized equipment for catalyst synthesis, characterization (including in situ techniques), and testing. Her work aligns with the institute's focus on sustainable catalysis for energy transition, air/water depollution, and biomass valorization, contributing to France's strategic research priorities in green chemistry.
Meng Cheng is an Assistant Professor of Physics at Yale University, specializing in condensed matter theory. He holds a B.S. from Nanjing University (2008) and a Ph.D. in Condensed Matter Theory from the University of Maryland (2013). After a postdoctoral position at Microsoft Research Station Q (2013–2016), he joined Yale in 2017. His research focuses on quantum criticality, fractonic phases, and symmetric topological phases, with a particular emphasis on classification and characterization of exotic quantum matter. He has received prestigious awards including the NSF CAREER Award (2019) and the Alfred P. Sloan Fellowship (2019). Key research interests include topological superconductivity, global symmetry interactions, and applications in quantum information. His work bridges theoretical frameworks with experimental implications, exploring topics like Wilson loop operators, disorder operators, and entanglement entropy in gapless systems. He has contributed to advancements in understanding symmetry-enriched topological phases and their surface topological order. Publications span high-impact journals and cover topics such as fractionalization in electronic insulators, quantum Hall effects, and topological stabilizer models. His talks highlight interdisciplinary approaches, including seminars at the Perimeter Institute and Université de Montréal on fractonic topological phases and infinite-component Chern-Simons theories. Awards and grants underscore his contributions to advancing theoretical physics, with a focus on fostering innovation in quantum materials and computational methods. Teaching and mentorship activities further his commitment to education within the Yale Physics Department.
Anna Delin is a Full Professor at KTH Royal Institute of Technology since 2011, leading research on magnetic and quantum phenomena in materials. She heads the WISE research school (wise-materials.org) and served as Deputy Head of the School of Engineering Sciences (SCI) from 2018–2022. Her expertise spans condensed matter physics, with a focus on nanomagnetism, skyrmions, spin-lattice couplings, and topological materials. Education: PhD in Condensed Matter Physics from Uppsala University (1998). Key awards include Naturvetarpriset (1998), Royal Swedish Academy of Sciences Research Fellowship (2007), Thuréus Prize (2018), and Edlundska Prize (2024). She has held visiting roles at ICTP, Los Alamos National Lab, and the Fritz Haber Institute. Research interests include magnetic skyrmions, magnonics, spintronics, and ultrafast demagnetization. Recent publications focus on spin-lattice dynamics, topological materials, and quantum analogs of classical magnetic models. Her work bridges theory and experiment, with contributions to tools like SpinView for computational magnetism analysis. Teaching includes roles as examiner for the Degree Project in Applied Physics and teacher for Sustainable Development in Engineering Physics. She actively participates in materials design initiatives and semantic data processing for big research data. Lab affiliations include her own research group at KTH and collaborations through WISE. Current projects explore skyrmion stabilization, magnon entanglement, and quantum spin systems, with implications for next-generation spintronic devices.
Silviu Pufu is a Professor of Physics at Princeton University, where he earned both his A.B. (2007) and Ph.D. (2011) in Physics. Prior to his faculty position, he was a Pappalardo Postdoctoral Fellow at MIT (2011–2013). His research focuses on quantum field theory, string theory, and gravity, with emphasis on conformal field theory, gauge/gravity duality, and lattice gauge theory. He has received the Alfred P. Sloan Research Fellowship (2017) and led the Simons Collaboration for Nonperturbative Bootstrap (2016–2023). His work explores advanced topics such as AdS/CFT correspondence, M-theory corrections, and non-perturbative bootstrap methods. Pufu advises three graduate students: Ross Dempsey, Debaditya Pramanik, and Benjamin Søgaard. His research outputs span theoretical frameworks like super-Yang-Mills theories, M-theory orbifolds, and lattice Hamiltonian formulations of QCD. His 2020–2025 publications highlight contributions to bootstrap techniques, holographic calculations, and precision studies of strongly coupled systems.
Yuan Cao is an Assistant Professor of Electrical Engineering and Computer Science at the University of California, Berkeley, since July 2024. He completed his BSc in Applied Physics at the University of Science and Technology of China (2014), followed by an MS (2016) and PhD (2020) in Electrical Engineering at MIT. Before joining Berkeley, he was a Junior Fellow at Harvard University (2021–2024). His research focuses on the electrical properties of low-dimensional materials and their applications via nanotechnology, including MEMS. Notable achievements include pioneering work on twisted graphene superconductivity, recognized as a Nature’s 10 highlight (2018) and Physics Breakthrough of the Year . He has received awards such as the Sackler Prize in Physics (2020), McMillan Award (2021), and NSF CAREER Award (2025). His research integrates experimental physics, nanofabrication, and low-temperature transport to explore novel quantum phenomena in 2D materials. Recent breakthroughs include the MEGA2D platform, an on-chip MEMS system enabling precise manipulation of 2D materials. Collaborations with Prof. Nguyen secured a $1M DARPA NIMBUS contract, and his NSF CAREER award funds studies on reconfigurable graphene superlattices. Education: PhD, Electrical Engineering, MIT (2020) MS, Electrical Engineering, MIT (2016) BSc, Applied Physics, USTC (2014) Awards: NSF CAREER Award (2025) Sackler Prize in Physics (2020) McMillan Award (2021) TIME 100 Next (2019) Grants & Funding: $1M DARPA NIMBUS Program Contract (2023) $810K NSF CAREER Award (2025) Prof. Cao’s lab actively recruits motivated graduate students and postdocs with expertise in 2D materials, MEMS, nanofabrication, or low-temperature physics. The lab is part of UC Berkeley’s College of Engineering, fostering interdisciplinary research at the forefront of quantum and nanoscale systems.
Peng Xiong is a Professor in the Department of Physics at Florida State University, with a research focus on electron and spin transport in low-dimensional quantum materials. He is affiliated with the Integrative NanoScience Institute (INSI) and has made significant contributions to mesoscale physics, spintronics, and organic/solid-state hybrid systems. B.S. in Physics (1987, University of Science and Technology of China) Ph.D. in Physics (1993, Brown University) Postdoctoral Fellowship (1993-1997, University of California at San Diego) Research Interests: Mesoscale Physics: Quantum phase transitions and fluctuation effects in 2D and 1D systems, semiconductor nanowires, carbon nanotubes, and nano-magnetism. Spintronics: Spin-polarized transport in hybrid structures (ferromagnet/normal metal, ferromagnet/superconductor, ferromagnet/semiconductor), magnetic semiconductors, and spin injection/detection. Organic/Solid-State Hybrids: Nanoscale biosensors utilizing magnetic and electrical principles, bio-mechanical devices, organic/solid interfaces, and template-directed nanostructure self-assembly. Publication Trends: His recent work spans superconducting fluctuations in ultrathin films, chirality-induced spin transport in semiconductors, interplay between structural chirality and spin-orbital effects, ion migration dynamics in 1D hybrids, quantum interference in nanowire loops, and modulation of nanomaterial properties through surface defect engineering. These studies often combine material synthesis, nanofabrication, cryogenic transport, and tunneling measurements. Scientific Recognition: Alfred P. Sloan Research Fellowship (1998) University Teaching Award (2003) PAI Award for Excellence (2004) Developing Scholar Award (2007) Fellow of the American Physical Society (2012) Advising Legacy: He has mentored numerous graduate students including Jeffrey Parker (Ph.D. 2003) Yongqing Li (Ph.D. 2003) Tianhan Liu (Ph.D. 2021) Jacob Hudis (Ph.D. 2021) and continues to guide current candidates like Yuwaraj Adhikari and Zhenqi Hua. Experimental Facilities: The lab at FSU features advanced equipment for nano-fabrication, including clean rooms, mask aligners, and thin film deposition systems. Cryogenic capabilities extend to dilution refrigerators (15 mK) and He3/He4 cryostats for ultralow-temperature studies of magnetic and superconducting systems.
Graham Dobereiner is an Associate Professor and Robert L. Smith Early Career Professor in the Department of Chemistry at Temple University's College of Science and Technology. He received his Ph.D. from Yale University (2011) and completed postdoctoral research at MIT (2012-2014) after earning his B.S. from Brandeis University (2007). His research group develops novel homogeneous transition metal catalysts for synthetic chemistry applications spanning fine chemicals manufacturing, petrochemical processing, and drug discovery. The work integrates organometallic chemistry principles, combining organic molecular diversity with inorganic compound reactivity. Research areas include catalytic isomerization, oxidative synthesis, ligand design, and mechanistic studies of transition metal complexes. Analysis of his recent publications demonstrates strong emphasis on reaction mechanism elucidation, catalyst design for stereoselective transformations (particularly Z-selective isomerizations), and development of novel catalytic systems for sustainable synthesis. His group employs computational and experimental approaches to advance synthetic methodology.
Eric Collet is a University Professor and Head of Department at the Institute of Physics of Rennes (IPR), a joint research unit of CNRS and Université de Rennes. His work centers on ultrafast photoinduced phase transitions, spin-crossover materials, and the control of functional materials using light and THz excitation. He leads a dynamic research team and is deeply involved in international collaborations, particularly through the IM-LED International Laboratory with Japan. University: University of Rennes School: Institute of Physics of Rennes Department: Department of Materials and Light Academic Rank: Professor Email: eric.collet@univ-rennes.fr Professor Collet's research explores the ultrafast dynamics of molecular and condensed matter systems, especially those exhibiting multistability and photoresponsiveness. His work combines femtosecond optical and X-ray techniques to probe structural and electronic changes at atomic scales. Key areas include spin-crossover phenomena, photomagnetism, ferroelasticity, and nonlinear phononics. He investigates how light can trigger cooperative responses in materials, leading to persistent phase transitions with applications in photonics and memory devices. The recent publications of Eric Collet reveal a strong focus on ultrafast structural dynamics, photoinduced charge and spin transitions, and the coupling of electronic states with lattice distortions. His team frequently employs advanced X-ray methods at large-scale facilities like ESRF and LCLS. The research spans from fundamental quantum dynamics to applied materials science, with recurring themes in symmetry breaking, cooperative switching, and room-temperature photoresponse in molecular systems. Scientific awards and recognitions include: CNRS Silver Medal (2020) Louis Ancel Prize, French Physical Society Hot Paper selection in PCCP (2019) Very Important Paper recognition in Eur. J. Inorg. Chem. (2019) News & Views feature in Nature Chemistry (2020) Eric Collet actively mentors PhD students and postdoctoral researchers, and has supervised numerous publications in top journals. He has led major scientific initiatives such as the UCM2018 symposium and JMC2021 conference. His research is supported by grants from ANR, CNRS, and the Institut Universitaire de France. He collaborates extensively with institutions in France, Japan, and beyond. His research is conducted primarily within the Department of Materials and Light at the Institute of Physics of Rennes. He co-directs the IM-LED International Laboratory with Prof. Shin-ichi Ohkoshi (University of Tokyo) and collaborates with groups in Bordeaux, Lebanon, and Japan. His lab specializes in time-resolved X-ray diffraction, ultrafast spectroscopy, and nonlinear optical control of materials.
Thomas Lectka is the Jean and Norman Scowe Professor in the Department of Chemistry at Johns Hopkins University, where he has been a faculty member since 1994. His research focuses on synthetic and physical organic chemistry, particularly in the area of organofluorine chemistry. PhD, Cornell University Postdoctoral Fellow, Heidelberg (Alexander von Humboldt Fellow) Postdoctoral Fellow, Harvard University (NIH Fellow) Dr. Lectka's research is centered on developing novel synthetic methods, especially for fluorination, and understanding the physical organic principles underlying reactivity. His work spans radical fluorination , catalytic asymmetric synthesis , and the design of fluorinated bioactive molecules . Using a combination of experimental and computational techniques, his lab investigates C-F bond formation , reaction mechanisms , and the biological applications of fluorinated compounds. His recent work, as reflected in publications from 2010 to 2024, shows a consistent trajectory in advancing fluorination methodologies, with increasing emphasis on site-selectivity , enantiocontrol , and biomedical relevance . Themes include the development of new reagents, mechanistic studies, and the synthesis of fluorinated natural product analogs and peptidomimetics. Dr. Lectka has received numerous honors and awards, including: ACS Arthur C. Cope Scholar (2024) ACS Maryland Chemist of the Year (2017) John Simon Guggenheim Memorial Fellowship Dreyfus Teacher-Scholar Award Sloan Fellowship NSF CAREER Award NIH First Award Eli Lilly Grantee Award He actively mentors graduate and undergraduate students in his research group, contributing to education and training in organic chemistry. His lab, The Lectka Group , is supported by grants from the NIH and NSF, enabling cutting-edge research in synthetic methodology and physical organic studies. The group fosters a collaborative environment focused on innovation in fluorine chemistry. The Lectka Group is an active research laboratory at Johns Hopkins University dedicated to pushing the boundaries of synthetic organic chemistry through the exploration of fluorine's unique properties. Current projects include site-selective radical fluorination and the synthesis of unusual fluorinated species, aiming to provide new tools for drug discovery and materials science.
Michael Knap is an Associate Professor of Collective Quantum Dynamics at the Technical University of Munich (TUM), within the Department of Physics at the TUM School of Natural Sciences. His research group focuses on condensed matter theory, quantum many-body systems, and quantum simulation. Knap holds office in room 5101.01.037 at James-Franck-Str. 1, 85748 Garching b. München, and can be reached at michael.knap@ph.tum.de or +49 (89) 289 - 53777. Prof. Knap's research delves into the rich physics of quantum many-body systems, particularly exploring non-equilibrium dynamics and transport phenomena in ultracold quantum gases, interacting light-matter systems, and correlated quantum materials. His work spans multiple subfields including topological phases of matter, quantum simulation with trapped ions, fracton physics, and quantum computation. He develops novel numerical approaches based on quantum information theory and utilizes artificial intelligence and machine learning to tackle challenging problems in condensed matter physics. His group's research connects fundamental theoretical questions with experimental implementations in quantum simulators. The analysis of Prof. Knap's recent publications (2023-2025) reveals a strong focus on topological quantum matter, quantum simulation, and emergent phenomena in constrained quantum systems. His work frequently bridges condensed matter theory with quantum information science, as evidenced by publications on fracton hydrodynamics, higher-form symmetries, and quantum error correction. There's a clear progression toward increasingly complex quantum systems and connections to experimental implementations on quantum processors. His research shows significant interdisciplinary reach, connecting condensed matter physics with quantum computing and quantum information theory. ERC Consolidator Grant (2025) ERC Starting Grant (2019) Supervisory Award, TUM Department of Physics (2018) Promotio sub auspiciis Praesidentis rei publicae, Austria (2013) Prof. Knap has established a robust research program supported by prestigious European Research Council grants. His group actively collaborates with both theoretical and experimental groups worldwide, particularly in the quantum simulation community. He has supervised numerous students through Master's Seminars on Collective Quantum Dynamics covering topics like quantum simulation with trapped ions and theoretical quantum computation. His research has received significant attention, with several publications featured as Editors' suggestions and Research Highlights in leading journals. The Collective Quantum Dynamics group maintains strong connections with experimental quantum simulation efforts, particularly in the areas of ultracold atoms and trapped ion systems. Knap's theoretical work often provides frameworks for interpreting experimental results in quantum simulators, creating a productive feedback loop between theory and experiment. His group participates in collaborative research networks focused on advancing quantum simulation capabilities and understanding fundamental aspects of quantum many-body physics.
Olle Eriksson is a Professor in the Department of Physics and Astronomy at Uppsala University, specifically affiliated with the Materials Theory division. His research focuses on theoretical and computational approaches to understanding magnetic materials and their properties. His primary research interests include first principles calculations of bulk materials and surfaces, with particular emphasis on magnetism and chemical bonding. His methodological expertise spans full-potential implementations of density functional theory, dynamical mean-field theory, and self-interaction correction. He also conducts calculations of finite temperature magnetism using Monte Carlo simulations and atomistic spin-dynamics simulations, as well as investigations into lattice dynamics and finite temperature effects on phase stability. Professor Eriksson's recent work demonstrates a strong focus on magnetocaloric materials for magnetic refrigeration applications, two-dimensional magnetic materials including van der Waals magnets, topological magnetic textures such as skyrmions, and computational methods for improving density functional theory. His research has significant implications for energy-efficient cooling technologies, next-generation spintronic devices, and fundamental understanding of quantum magnetic phenomena. Materials Science : Magnetocaloric materials, battery materials, 2D materials Computational Physics : Density functional theory, Monte Carlo simulations, spin dynamics Magnetism : Topological textures, chiral magnets, ultrafast dynamics His extensive publication record shows consistent contributions to high-impact journals across physics and materials science, with a notable increase in interdisciplinary work connecting computational physics with materials design for energy applications.
Zvonimir Dogic is a Research Associate Professor of Physics at the Martin A. Fisher School of Physics, Brandeis University. He leads the Dogic Lab, focusing on self-assembly of active and soft materials, with interdisciplinary work spanning statistical mechanics, biochemistry, and biophysics. His research explores how particle shape, chirality, and entropic forces drive emergent structures in colloidal systems and active matter. He holds a PhD from Brandeis University (2001) and has supervised numerous PhD students now in academic and industrial roles. Notable honors include the 2010 Cozzarelli Prize and the 2013 Andor Insight Award for his work on oscillating microtubule bundles. Research interests include active matter dynamics, liquid crystalline phases, and biomimetic systems. Recent work includes studies on microtubule-based active gels, chiral colloids, and self-organized cilia-like structures. His lab collaborates with institutions like Harvard, the Mayo Clinic, and the Francis Crick Institute. Key funding sources include the NSF MRSEC, W.M. Keck Foundation, and NIH. The lab’s YouTube channel and Science Blog posts highlight breakthroughs like self-propelled emulsions and entropy-driven membrane formation.
Steven A. Corcelli is a Professor and Interim Dean of the College of Science at the University of Notre Dame, with a research focus on Theoretical Chemistry and Molecular Dynamics Simulations . His work bridges Physical Chemistry and Biochemistry , targeting Energy Applications and Biomolecular Binding Mechanisms . He leads the Computational Molecular Science & Engineering Laboratory (CoMSEL). Ph.D., Chemistry, Yale University (2001) Sc.B., Chemistry, Brown University (1997) Research interests span ionic liquids for Carbon Capture , aqueous electrolytes in battery technologies , and molecular binding processes in immunology and DNA interactions . His group employs GPU-accelerated simulations and weighted ensemble methods to uncover structural and dynamic motifs. Recent publications highlight trends in vibrational spectroscopy , TCR-MHC binding , and CO2 solvation mechanisms . Awards include the Thomas P. Madden Award (2020) , ACS Fellowship (2016) , and NSF CAREER Award (2009) . Staff: Erin Brossard (Ph.D.), Nell Karpinski, Shuang Wu, Noah Vasconez, Kaitlyn Handy, Isabel Thompson
Turan Birol is an Associate Professor in the Department of Chemical Engineering and Materials Science at the University of Minnesota, with a secondary appointment in the School of Physics. He leads the Theoretical Materials Physics Group , focusing on computational materials design to discover exotic condensed matter phenomena. Education: PhD in Physics (Cornell University), Postdoc (Rutgers University) Research Areas: Ferroelectricity, Charge Density Waves, Multiferroics, Strongly Correlated Systems, Kagome Metals His work combines Density Functional Theory with Dynamical Mean Field Theory to study materials like perovskites, layered antiperovskites, and 2D/3D compounds. Recent projects include Office of Naval Research -funded ferroelectric design and NSF Discovery File -featured transparent conductors. Scientific contributions include 15+ recent articles on topics spanning structural chirality in superconductors, strain-tuned magnetism, and catalytic resonance theory. Former advisees include PhD graduates in Physics and Materials Science.
