Jinpeng Tian is a Postdoctoral Research Associate at Princeton University, affiliated with the Department of Electrical and Computer Engineering (deduced from advisor's field). His work focuses on 2D materials, quantum physics, and nanotechnology. Key research areas include twisted bilayer graphene, correlated insulators, and MoS2-based electronics. Research Interests : 2D materials (graphene, MoS2, WS2) Moiré superlattices and valleytronics Quantum phase transitions and correlated states Flexible electronics and nanodevice fabrication Superconductivity and magnetism in low-dimensional systems Scientific Awards : No awards mentioned in the provided text. Advising and Collaborations : Advised by Saien Xie at Princeton University. No explicit list of advisees provided.
Aviram Uri is an incoming Assistant Professor of Physics at Princeton University (starting September 2025). Currently a Pappalardo Fellow at MIT’s Physics Department, he holds a B.Sc. from Tel-Aviv University and a Ph.D. from the Weizmann Institute of Science (2021). His research focuses on strongly interacting topological quantum phases using transport measurements and scanning nano-SQUID magnetometry. Education B.Sc. Physics, Tel-Aviv University Ph.D., Weizmann Institute of Science (2021) Research interests include exploring quantum phenomena in moiré materials, topological phases in graphene systems, and nanoscale electronic imaging techniques. His work bridges experimental condensed matter physics with quantum material science. Key Awards Israel Physics Society’s Outstanding Experimental Student Award John F. Kennedy Prize for doctoral research Rothschild Postdoctoral Fellowship VATAT Quantum Science Fellowship Publications focus on moiré heterostructures (e.g., trilayer graphene systems) and quantum criticality in 2D materials. His lab at Princeton (uri-lab.com) will advance experimental studies of topological quantum matter.
Alex Gorodetsky is an Associate Professor of Aerospace Engineering at the University of Michigan , part of the College of Engineering . His research focuses on autonomous decision-making under uncertainty , leveraging applied mathematics and computational science. Key areas include uncertainty quantification, machine learning, control systems, and tensor decompositions. He leads the Gorodetsky Group , which develops algorithms for high-fidelity simulations and scalable digital twins. Education: PhD (2016) and SM (2012) from MIT in Aeronautics/Astronautics; BSE (2010) in Aerospace Engineering from the University of Michigan. Research Interests: Innovating methods for managing uncertainty in complex systems like autonomous aircraft and electric propulsion, with applications in aerospace, bioengineering, and climate modeling. Techniques include Bayesian inference, multi-fidelity surrogate modeling, and compressed data analytics. Notable Contributions: Developed the MFNETS framework for efficient multi-fidelity surrogate networks. Recipient of the NSF CAREER Award (2023) and Air Force Young Investigator Award (2018) . Active in NASA-funded initiatives like the Joint Advanced Propulsion Institute (JANUS) . Recent Work: Focus on GPU-accelerated plasma simulations, automated statistical estimation, and low-rank tensor methods for high-dimensional problems. Over 50 peer-reviewed articles, with recent highlights in Computer Methods in Applied Mechanics and Engineering , SIAM Journal on Scientific Computing , and Journal of Computational Physics . Teaching & Mentorship: Advises over 20 graduate and undergraduate students, with emphasis on interdisciplinary training in computational methods and AI-driven science.
Arzhang Ardavan is a Professor of Physics at the University of Oxford's Clarendon Laboratory, where he heads the Condensed Matter Physics sub-department. He holds a Tutorial Fellowship at Magdalen College, serving as Tutor for Admissions, and co-directs Oxford's Centre for Advanced Electron Spin Resonance. His research explores quantum phenomena in condensed matter systems, including strongly correlated electrons, molecular magnets, and superconducting states. Ardavan's work spans quantum materials, Kondo insulators, and molecular quantum devices. His group employs techniques like electron spin resonance and transport measurements to study spin-electric couplings, topological surface states, and fluctuating superconductivity. Research emphasizes the design of quantum electronic systems and nanoscale spin manipulation. Recent publications highlight advances in quantum computing (qudit error correction, multi-qubit gates), quantum materials (bismuth electron dynamics, light-induced superconductivity), and molecular nanomagnets. Dominant themes include quantum coherence engineering, fault-tolerant architectures, and cross-correlated phenomena in magnetoelectrics. He leads the Quantum Spin Dynamics group and collaborates internationally on projects ranging from ultrafast spectroscopy to medical physics applications of quantum principles.
Marin Spaić is an Assistant Professor in the Physics Department at the Faculty of Science, University of Zagreb. His research focuses on condensed matter physics, particularly studying nanoscale structural fluctuations in superconductors like cuprates and bismuthates, as well as their electronic properties. He employs advanced techniques such as X-ray/neutron scattering, Monte Carlo modeling, and NMR spectroscopy. His work addresses fundamental questions about symmetry-breaking phenomena, phase transitions, and electronic correlations in quantum materials. Key research areas include cuprate superconductors (e.g., LaSrCuO), bismuth-based systems (Ba1-xKxBiO3), and strontium titanate. He investigates structural disorder, local correlations, and their impact on superconductivity and electronic phases. Recent studies (2024-2025) highlight nanoscale symmetry-lowering fluctuations and electronic spin susceptibility measurements in metallic systems. Spaić collaborates on instrumentation development, such as cryogenic optical absorption spectrometers for sub-THz frequencies. His interdisciplinary approach bridges experimental and computational methods to uncover mechanisms underlying high-temperature superconductivity and correlated electron systems.
Carina Belvin is a Researcher (Clark B. Millikan Postdoctoral Scholar) in the Division of Physics, Mathematics and Astronomy at the California Institute of Technology . Her research focuses on condensed matter physics , particularly in the areas of magnetic materials , quantum materials , and ultrafast spectroscopy . Her work investigates phenomena such as magnon dynamics in van der Waals antiferromagnets, collective excitations in correlated materials, and the Verwey transition in magnetite. She employs advanced techniques like terahertz spectroscopy and optical detection of magnetic resonance to study electronic and magnetic properties. Belvin also explores astrochemical processes, including radiolysis of interstellar ice analogs. Her research has contributed to understanding the interplay between spin, charge, and lattice dynamics in systems like NiPS3 antiferromagnets and topological insulators. Current projects emphasize topological phases in Dirac metals and exciton-driven magnetic transitions in van der Waals heterostructures. She is affiliated with the Division of Physics and collaborates on experimental and theoretical studies of low-dimensional materials and correlated electron systems. No scientific awards or grants are listed in the provided materials. Belvin has no listed advisees or students, but her research frequently involves graduate students and postdoctoral scholars in collaborative projects.
Bruno Uchoa is the Ted and Cuba Webb Presidential Professor in the Homer L. Dodge Department of Physics and Astronomy at the University of Oklahoma. His research focuses on correlated quantum critical systems, Dirac materials, and strongly correlated phases in quantum materials. He holds a Ph.D. from the State University of Campinas (2004). Research interests include nodal superconductors, topological insulators/superconductors, Chern insulators, and low-dimensional systems. His work explores how chiral fermions and Fermi surface nodes lead to novel quantum phenomena, such as quantum criticality and unconventional superconductivity. Key Awards: NSF Early CAREER Award, Ted and Cuba Webb Presidential Professorship. Group Contributions: Advised PhD students like Geo Jose (graduated 2022) and Kangjun Seo. Recent additions include Priktish Suntoo, Mara Lozano, and Brigham Godwin. Recent Highlights: Published in PNAS and Nature , explored Pines' demon plasmons in Sr₂RuO₄, and studies on twisted graphene bilayers. Labs/Groups: Leads the Uchoa Group, which investigates topological and strongly correlated electron systems, emphasizing many-body quantum phenomena and quantum criticality.
Vladimir Tsurkan is an Associate Professor and Principal Scientific Researcher at the Laboratory of Physics of Semiconductor Compounds ‘Sergiu Radautsan’ within the Institute of Applied Physics (IAP) at Moldova State University. His research focuses on semiconductor materials, magnetism, and optical properties of advanced materials. He leads projects involving strain engineering, spintronics, and topological phases in materials like kagome ferromagnets and lacunar spinels. His work integrates experimental techniques such as neutron diffraction, muon spin relaxation, and optical spectroscopy with computational methods like ab initio modeling. Key research areas include: Magnetic anisotropy in topological materials Optical and electronic properties of semiconductors Spin dynamics in low-dimensional magnetic systems Strain-driven phase transitions in multiferroics He has contributed to over 50 peer-reviewed articles, with recent work exploring spin-phonon interactions, antiskyrmion stabilization, and magneto-optical effects in novel compounds. His research is supported by international collaborations under projects like H2020-MSCA-RISE and STCU grants.
Yi Ma is a Professor of Computer Science at the University of Hong Kong (HKU), serving as Chair of Artificial Intelligence and Director of HKU's School of Computing and Data Science (HKU CDS) and the Musketeers Foundation Institute of Data Science (HKU IDS). He holds a joint faculty position in the Department of Electrical Engineering and Computer Sciences at UC Berkeley. His academic journey includes roles at UIUC (2000-2011), Microsoft Research Asia (2009-2014), and ShanghaiTech University (2014-2017). He earned his PhD from UC Berkeley in 2000, with earlier degrees from Tsinghua University. Research focuses on computer vision, high-dimensional data analysis, and intelligent systems, with contributions to robust face recognition, sparse representation, and deep learning principles. Key publications include works on ReduNet, low-dimensional models, and generalized PCA. He has been Program Chair for ICCV 2013 and General Chair for ICCV 2015. Recent activities include keynote speeches at international conferences (e.g., Future Science Prize Symposium 2024, PRCV 2024) and leadership in initiatives like the Conference on Parsimony and Learning (CPAL 2024). Awards include IEEE, ACM, and SIAM Fellowships, along with best paper and Marr prizes. Education : Bachelor’s in Automation and Applied Mathematics, Tsinghua University (1995) Master’s in EECS and Mathematics, Tsinghua University (1997) PhD in EECS, UC Berkeley (2000) Awards : NSF Career Award (2004) ONR Young Investigator Award (2005) David Marr Prize (ICCV 1999) IEEE/ACM/SIAM Fellowships Labs & Initiatives : HKU IDS and CDS Berkeley Artificial Intelligence Research (BAIR)
Luca Vannucci is an Assistant Professor in the Department of Electrical and Photonics Engineering at the Technical University of Denmark (DTU), where he conducts research in quantum photonics and quantum light sources. His work focuses on developing high-purity single-photon emitters using two-dimensional materials and nanostructured photonic systems. His research interests lie at the intersection of quantum optics, nanophotonics, and condensed matter physics. Specifically, he investigates quantum emitters in 2D materials such as WSe₂, phonon-assisted excitation mechanisms , strain and defect engineering , and cavity quantum electrodynamics in low-dimensional systems. His theoretical and experimental work aims to enhance the efficiency, stability, and indistinguishability of quantum light sources for quantum information applications. The recent publications highlight a strong trend toward engineering quantum photonic devices with reduced decoherence and enhanced control over emission properties. His work integrates material science with photonic design to realize scalable quantum technologies. Luca Vannucci actively supervises PhD students and contributes to advanced research projects in quantum photonics. He has served as a supervisor in multiple completed PhD projects related to Design and Simulations of Quantum Light Sources and Optomechanics with Quantum Emitters . He also presented his research at international conferences, including a talk on Phonon-decoupled di-chromatic pumping scheme for highly efficient and indistinguishable single-photon sources in October 2022. He is affiliated with the Quantum Light Sources group at DTU, which focuses on the development of next-generation quantum photonic technologies using solid-state emitters and nanophotonic structures.
Oliver Clark is a Research Fellow in the School of Physics and Astronomy at Monash University. His work focuses on experimental condensed matter physics, particularly using advanced photoemission techniques to study quantum materials. He is actively involved in research on 2D materials, topological phases, and electronic structure characterization. Oliver Clark earned a BSc MPhys in Physics from the University of Warwick (2011–2015) and a PhD in Physics from the University of St Andrews (2015–2018), awarded in 2019. His doctoral research explored topological band inversions using spin- and angle-resolved photoemission spectroscopy. His research interests lie at the intersection of quantum materials and experimental spectroscopy. He specializes in angle-resolved photoemission spectroscopy (ARPES) and its variants—time-resolved, spin-resolved, and nano-ARPES—applied to layered materials such as transition metal dichalcogenides. His work investigates emergent phenomena like topological states, spin textures, quantum confinement, and correlated electron behavior in heterostructures. He frequently uses synchrotron light sources to achieve high-resolution electronic structure mapping. The recent publications highlight a consistent focus on uncovering exotic electronic properties in low-dimensional and topological materials. Key themes include the characterization of Dirac cones, Rashba effects, superconductivity in topological surface states, and ultrafast dynamics in ferroelectric semiconductors. His research combines precise material fabrication with advanced spectroscopic analysis to probe quantum phenomena at the nanoscale. Oliver Clark has been involved in multiple research projects, including those funded by the Australian Nuclear Science and Technology Organisation (ANSTO). He currently leads or co-leads projects on flat bands in twisted bilayers, non-trivial surface electronic structures, and spin textures in magnetic van der Waals heterostructures. Although no formal advisees are listed, his role as a Chief Investigator indicates a leadership position in collaborative research. He has no listed scientific awards in the provided text. He is part of the Edmonds research group at Monash University, where he collaborates on fabricating and characterizing novel quantum materials. His work often involves international collaborations, as seen in co-authorship with researchers from institutions in Germany, Japan, and Thailand. The lab environment supports cutting-edge ARPES experiments and nanoscale material engineering.
Eran Palti is a Full Professor in the Department of Physics at Ben-Gurion University of the Negev (BGU), where he leads a research group dedicated to theoretical physics, particularly string theory and quantum gravity. His work bridges fundamental aspects of high-energy physics with cosmological implications, focusing on topics such as the Swampland program, compactification, and emergent phenomena. His research interests lie at the forefront of theoretical physics, exploring the deep structure of string theory, M-theory, and their connections to quantum gravity. Key areas include F-theory, supersymmetry, supergravity, and the mathematical foundations of Calabi-Yau manifolds. He investigates how physical laws emerge from more fundamental principles, particularly in the context of topological strings and non-perturbative effects. The recent trend in his publications reveals a strong focus on the Swampland conjectures, emergence, and the interplay between string theory and quantum gravity. His work frequently addresses constraints on effective field theories from quantum gravity, the behavior of massive particles in Regge limits, and the thermodynamic and geometric properties of string vacua. These studies contribute to a deeper understanding of the landscape of string theory and the boundaries of consistent physical theories. Regge growth of isolated massive spin-2 particles and the Swampland Emergence in string theory and Fermi gases Self-binding energies in AdS On Calabi-Yau manifolds at strong topological string coupling Non-perturbative topological string theory from M-theory Prof. Palti is actively involved in multiple research projects, including an ongoing German-Israeli collaboration on holography and the Swampland funded by the German Research Foundation. He previously led a project on the cosmology of string and M-theory supported by the Science and Technology Facilities Council. He advises a research group comprising postdoctoral researchers and collaborators such as Nicolo Petri, Stefano Andriolo, and Marco Michel, fostering a collaborative environment in theoretical physics. His research group, part of the Department of Physics at BGU, focuses on advancing the frontiers of quantum gravity and string theory. The team explores topics such as string compactifications, emergent spacetime, and the mathematical structures underlying physical theories. The group maintains strong international collaborations, particularly with institutions in Germany, contributing to the global effort to unify quantum mechanics and general relativity.
Thierry Giamarchi is a Professor in the Department of Quantum Matter Physics at the Faculty of Science, University of Geneva, where he leads the Theory of Quantum Matter research group. His work focuses on fundamental aspects of quantum systems, particularly in reduced dimensions and under strong correlations. His research spans several key areas in modern theoretical condensed matter physics. Using analytical and numerical methods, he investigates quantum phase transitions , disordered quantum systems , quantum magnetism , and ultracold atomic gases . A major contribution is his foundational work on one-dimensional quantum systems, synthesized in his widely used book Quantum Physics in One Dimension . His group explores connections between theory and emerging experimental platforms, especially atomically thin materials and precisely controlled quantum devices. The recent publications highlight a trend toward understanding quantum electrostatic effects in nanoscale devices and exotic quantum states in repulsive systems. These works reflect a strong emphasis on bridging theoretical models with realizable quantum technologies. Scientific Awards Prof. Giamarchi mentors junior researchers and postdoctoral fellows within his group, fostering a dynamic research environment. While specific grants are not listed, his ongoing projects and job postings indicate active funding for theoretical research in quantum matter. He regularly contributes to the academic community through publications, lecture notes, and training the next generation of theoretical physicists. His research group, the Theory of Quantum Matter, is actively engaged in exploring new quantum phenomena, particularly in systems where quantum fluctuations dominate and classical intuition fails. The team collaborates internationally, as seen in recent work with institutions in Augsburg, Bonn, and Oxford, advancing the understanding of highly excited quantum states and non-trivial quantum coherence.
Christopher Gianopoulos is a Research Assistant Professor at the University of Toledo with expertise in inorganic and organometallic chemistry. His research focuses on quantifying chemical bonding in unconventional systems through low-temperature X-ray diffraction and theoretical calculations. Education : Ph.D. in Inorganic Chemistry (2014, University of Toledo); B.S. in Chemistry and Chemical Engineering (2009, Purdue University) Research Interests include structural characterization of actinide compounds, electron density analysis, and nanomaterial synthesis. His work bridges experimental crystallography with quantum mechanical modeling to elucidate bonding in low-coordinate heavy elements and gold nanoclusters. Recent Publications highlight advancements in gold nanocluster synthesis, actinide chemistry, and pressure-responsive nanomaterials. Over 15 papers document his contributions to electron density topology, ligand engineering, and energetic materials. Contact : Office in Bowman-Oddy Laboratories (BO 0226); Email: Chris.Gianopoulos@utoledo.edu
Frédéric Mila is a full Professor and Chair of Theoretical Condensed Matter Physics at École Polytechnique Fédérale de Lausanne (EPFL), affiliated with the School of Basic Sciences (SB), Institute of Physics (IPHYS), and the Condensed Matter Theory Group (CTMC). He also holds roles in the Doctoral Program in Physics (EDPY) and the School of Physics and Engineering (SPH-ENS). His research centers on quantum magnetism, frustrated systems, and strongly correlated electrons. His research interests include quantum magnetism, frustrated spin systems, quantum phase transitions, tensor network methods, and quantum spin liquids . He employs both analytical approaches and advanced numerical techniques to study complex quantum phenomena in low-dimensional and geometrically frustrated materials. His recent publications reveal a strong focus on magnetization plateaus, quantum dimer models, spin liquids, and high-field quantum phases , particularly in compounds like SrCu2(BO3)2 and theoretical models such as the Shastry-Sutherland and triangular lattice antiferromagnets. His work often bridges theory with experimental findings from neutron scattering and high-field measurements. Scientific Awards: Charpak-Ritz Prize (2024) – Awarded by the French and Swiss Physical Societies. Advising and Grants: Prof. Mila actively mentors a large group of doctoral students and has supervised numerous PhD theses at EPFL. His students have worked on diverse topics including SU(N) spin chains, tensor networks, frustrated magnetism, and quantum Monte Carlo methods. His sustained publication record in top journals indicates continuous funding and active research leadership. Labs and Teams: He leads the Condensed Matter Theory Group (CTMC) at EPFL, which focuses on theoretical and computational aspects of quantum materials. The group collaborates closely with experimentalists and uses state-of-the-art numerical tools to investigate quantum phases of matter.
