Find Academic Supervisors

Ignacio IZEDDINView profile

Associate Professor

• Single-Molecule Localization Microscopy
• Super-Resolution Imaging
• Single Particle Tracking
• +7 more

Ignacio IZEDDIN is an Associate Professor ( Maître de conférences ) at the Institut Langevin, ESPCI Paris, which is part of CNRS and Université PSL. His research sits at the critical intersection of advanced optical imaging, biophysics, and molecular cell biology, with a particular focus on pushing the boundaries of what can be visualized and understood about molecular distribution and cellular dynamics. His primary research interests include Single-Molecule Localization Microscopy (SMLM), super-resolution imaging techniques, single particle tracking (SPT), biophotonics, diffusion processes in cell biology, molecular cell biology, transcription regulation, DNA repair mechanisms, and light-matter interactions at the nanoscale. Dr. IZEDDIN's work aims to develop innovative microscopy tools that overcome current limitations in spatial and temporal resolution, enabling the capture of rapid, dynamic cellular processes with unprecedented clarity. The trends in his recent publications reveal a strong focus on developing event-based sensor technology for high-speed single-molecule localization, creating novel 3D microstructured substrates for cellular imaging and calibration, studying light-matter interactions at the nanoscale through fluorescence lifetime imaging, and applying these advanced techniques to understand fundamental biological processes like DNA repair, chromatin dynamics, and cellular differentiation. His work consistently bridges physics, engineering, and biology to solve complex imaging challenges. Dr. IZEDDIN is actively involved in research funding and recruitment, with current projects including a European LIGHTinParis COFUND PhD position analyzing alpha-synuclein diffusion in neurons using super-resolution microscopy based on event sensors, and hiring for a software engineer position to develop data processing tools for event-based SMLM technology. His laboratory employs a highly interdisciplinary approach, combining physics, biology, and engineering expertise to tackle challenging problems in cellular imaging. Current projects involve collaborations with neuroscientists, physicists, and engineers to study everything from molecular diffusion in neurons to macrophage differentiation on 3D topographical substrates.

• Quantum Dots
• Electron Spin Dynamics
• EPR Spectroscopy
• +4 more

Matthew D Krzyaniak is a Research Associate Professor in the Department of Chemistry at Northwestern University and a member of the International Institute for Nanotechnology (IIN) . With over 100 publications and a 36 h-index, his research focuses on quantum chemical phenomena in molecular systems. Research Areas : Quantum dots, electron spin dynamics, chirality-induced spin selectivity, molecular qubits, EPR spectroscopy, and photogenerated radical pairs Collaboration : Works extensively with Prof. Michael R. Wasielewski and Dr. Riccardo Puggioni on molecular electron spin systems Scientific Trends : His recent work explores spin coherence in DNA hairpins, triplet exciton formation in cocrystals, and uranium metallacarborane materials for quantum applications. He contributes to SDGs through nanotechnology and sustainable material development.

Meilan HuangView profile

Senior Lecturer

• Computational Chemistry
• Biocatalysis
• Machine Learning
• +5 more

Dr. Meilan Huang is a Senior Lecturer (Associate Professor) at the School of Chemistry and Chemical Engineering, Queen's University Belfast. Her research focuses on integrating computational chemistry and biology with machine learning to advance biocatalysis, photocatalysis, and theoretical catalysis. She leads interdisciplinary projects bridging computational methods with experimental and industrial applications for catalyst design. PhD in Computational Chemistry, Zhejiang University (2003) Postdoctoral research: University of Calgary (1999-2003), University of Oxford (2004-2006), University of British Columbia (2006-2007) Her work explores the structure-function relationships and catalytic mechanisms of enzymes to enable rational design of novel catalysts. She develops tools like ALDELE and BioStructNet using transfer learning and deep learning for biocatalyst function prediction. Her recent publications highlight advancements in computational biocatalysis, photocatalytic glycerol oxidation, and perovskite charge dynamics. Dr. Huang has secured over £2 million in research funding, including grants from Invest NI and the Royal Society, and supervised computational and machine learning workpackages in major projects. Awards include Fellow of the Royal Society of Chemistry (2021) and Biology (2022), the Queen's Student Union Education Excellence Award (2017), and the Innovation in Teaching Fund (2022) for VR chemistry labs.

• Condensed Matter Physics
• Quantum Physics
• Topological Materials
• +2 more

Eugene J. Mele serves as Professor of Physics at the University of Pennsylvania, where he has maintained a continuous faculty appointment since 1981. He also holds visiting faculty status at Loughborough University since 2014, maintaining transatlantic research collaborations in condensed matter physics. His educational background includes a B.S. from Saint Joseph's University (1972) and Ph.D. from Massachusetts Institute of Technology (1978) under advisor John Joannopoulos. Prior to his Penn appointment, he conducted research at Xerox Webster Research Center. Mele's research focuses on quantum phenomena in condensed matter systems , particularly topological phases of matter. His seminal work on the quantum spin Hall effect established foundational principles for time-reversal invariant topological insulators, creating an entirely new research field that bridges theoretical predictions with experimental realizations in materials like HgTe quantum wells. His theoretical frameworks have enabled significant advances in understanding spin-charge separation and protected edge states. Analysis of his publication record reveals consistent contributions to topological quantum matter, with increasing emphasis on experimental verification and potential applications in spin-based electronics. His collaborative work with Charles Kane represents one of the most cited theoretical physics papers of the 21st century. Ira Abrams Award for Distinguished Teaching (1998) Benjamin Franklin Medal (2015) BBVA Foundation Frontiers of Knowledge Award (2018) Breakthrough Prize in Fundamental Physics (2019) John Scott Medal (2019) EPS Europhysics Prize (2010) APS Fellow (2001) National Academy of Sciences (2019) Mele has mentored fourteen doctoral students whose research spans electronic structure theory, topological materials, and quantum transport phenomena. His sustained research program has been supported by continuous funding from NSF and DOE, enabling long-term theoretical investigations that often precede experimental discoveries by several years. Current research directions focus on extending topological principles to novel material systems and exploring connections to quantum information science. His theoretical group at Penn maintains close collaborations with experimental condensed matter groups worldwide, particularly those specializing in low-temperature transport measurements and angle-resolved photoemission spectroscopy. These partnerships have proven essential for verifying theoretical predictions about topological surface states and quantum phase transitions.

Andrew CameronView profile

Professor

• Stellar Magnetic Fields
• Extrasolar Planets
• Radial-Velocity Method
• +3 more

Andrew Cameron is a Professor at the School of Physics and Astronomy , University of St Andrews, and a founding member of the St Andrews Centre for Exoplanet Science. His research focuses on stellar magnetic fields and extrasolar planet discovery, particularly through radial-velocity and transit methods. Education: B.Sc. and Ph.D. in Physics/Astronomy from University of Canterbury Key Projects: Principal Investigator for the €9.5m ERC Synergy Grant 'REVEALing Habitable Worlds', Co-I of the WASP project, UK Co-PI for the HARPS-North spectrograph, and member of the CHEOPS satellite science team Research Trends: Recent publications emphasize M dwarf stars, super-Earths, and overcoming stellar activity noise in radial-velocity measurements. His work spans from 2013 datasets on hot Jupiters to 2025 studies on Earth-mass planet detection techniques. Scientific Recognition: Elected Royal Society of Edinburgh (2002) George Darwin Lectureship (2012) RAS Group Achievement Award for WASP (2010) Teaching: Developed exoplanet courses and advanced data analysis modules. Currently teaches observational astrophysics and stellar structure.

Mathieu JeanninView profile

Researcher

• Optoelectronics
• Quantum Physics
• Semiconductor Physics
• +5 more

Mathieu Jeannin is a CNRS Research Fellow affiliated with the Centre Nanosciences et Nanotechnologies (C2N) at Université Paris-Saclay. He holds an MSc in Optics and Photonics from Imperial College London and an Engineering degree from Supélec, followed by a PhD in 2016 from Grenoble Alpes University. Research Focus: Mir-THz devices (Mid-Infrared to Terahertz Optoelectronics) Key Themes: Light-matter interaction, metamaterials, polaritons, quantum wells, plasmonics His research explores novel mid-infrared and THz optoelectronic devices operating in strong and ultra-strong light-matter coupling regimes. Recent work includes developing 3D metallic metamaterials for THz applications, studying nonlinearities in polaritonic systems, and advancing quantum cascade detectors. Dr. Jeannin has published extensively on intersubband polaritons, ultra-strong coupling, and nanophotonic architectures. His innovations include room-temperature THz detectors and mid-infrared saturable absorbers. He has been recognized with the Nanoscience Foundation Thesis Prize (2017) . His publications reveal trends in quantum plasmonics , polaritonic device engineering , and terahertz nanophotonics , emphasizing applications in high-speed modulation and nonlinear optical systems . Scientific Awards : Nanoscience Foundation Thesis Prize (2017)

Stephen R ClarkView profile

Professor

• Non-Equilibrium Physics
• Many-Body Systems
• Quantum Entanglement
• +4 more

Professor Stephen R Clark is a faculty member at the University of Bristol's School of Physics, holding the Professor title. His research focuses on non-equilibrium phenomena in many-body systems, including ultra-cold atoms and strongly correlated electron materials. He specializes in tensor network theory, quantum entanglement, and foundational quantum mechanics. Ultra-cold atomic systems Strongly correlated electron materials Quantum entanglement and correlations Tensor network algorithms (DMRG, TEBD) Quantum-classical simulation interfaces Clark has developed the open-source Tensor Network Theory Library , advancing classical simulability of quantum systems. His work connects tensor networks to variational Monte Carlo and dynamical mean-field theory, with applications to light-driven quantum systems and thermodynamics of small systems. Current projects include QuamNESS (2020-2024) and EPSRC-funded research on strong driving correlations. He actively supervises research and has produced 77 research outputs including datasets and software tools. Article trends show a focus on quantum transport , non-Markovian dynamics , machine learning for quantum states , and nonequilibrium quantum thermal machines . Clark's tensor network innovations span 1D to 2D systems, with applications in superconductivity, polarons, and photonic lattices.

Shuji NakamuraView profile

Professor

• Gallium Nitride Technology
• Light Emitting Diodes
• Laser Diodes
• +5 more

Shuji Nakamura is a CREE Professor of Solid State Lighting and Displays at the University of California, Santa Barbara, where he holds appointments in both the Department of Materials and the Department of Electrical and Computer Engineering within the Robert Mehrabian College of Engineering. He serves as the Research Director of the Solid State Lighting & Energy Electronics Center and holds The Cree Chair in Solid State Lighting & Displays. Since joining UCSB in 2000, Professor Nakamura has established himself as a leading figure in semiconductor research, particularly in the field of gallium nitride-based optoelectronics. Professor Nakamura earned his academic credentials from the University of Tokushima in Japan, obtaining his Bachelor of Electronic Engineering, Master of Electronic Engineering, and Doctor of Engineering degrees from the same institution. Professor Nakamura is widely recognized as the pioneer of light emitters based on wide-bandgap semiconductors, particularly gallium nitride (GaN). His research focuses on the development of GaN thin film technology for high-efficiency nitride-based LEDs and laser diodes. His groundbreaking work in the early 1990s led to the first practical blue LEDs and violet laser diodes, which revolutionized lighting technology and enabled white LED lighting. His current research continues to advance solid-state lighting and display technologies, with particular emphasis on improving efficiency and performance of nitride semiconductor devices. Professor Nakamura has received numerous prestigious scientific awards throughout his career, including: Nobel Prize in Physics (2014) for the invention of efficient blue light-emitting diodes Millennium Technology Prize Benjamin Franklin Medal in Engineering Harvey Prize for advancements in Science and Technology Global Energy Prize Zayed Future Energy Prize Lifetime Achievement Queen Elizabeth Prize for Engineering (2021) National Academy of Engineering membership National Academy of Inventors membership National Inventors Hall of Fame induction Professor Nakamura has mentored numerous students and researchers throughout his career and has been instrumental in establishing the Solid State Lighting & Energy Electronics Center at UCSB. He has secured significant research funding for his work on nitride semiconductors and has been awarded more than 200 US patents and over 175 Japanese patents. His research has led to practical applications through the companies he co-founded, including Soraa, Inc. (2008) and SLD Laser (2013), which was later acquired by Kyocera Corporation. Professor Nakamura leads research activities at the Solid State Lighting & Energy Electronics Center, which focuses on advancing nitride semiconductor technology for lighting and display applications. His team continues to push the boundaries of efficiency and performance in GaN-based devices, with ongoing research in blue and green LEDs, laser diodes, and related semiconductor technologies.

Denis MorrisView profile

Professor

• Carrier Relaxation Dynamics
• Spin Relaxation
• Semiconductor Nanostructures
• +5 more

Denis Morris is a Full Professor and Vice-Dean of Research in the Department of Physics at the University of Sherbrooke, affiliated with the Interdisciplinary Institute for Technological Innovation (3IT), Quantum Institute (IQ), and Quebec Centre for Advanced Materials (RQMP). His educational background includes: M. Sc. in Physical Engineering (Fiber Optic Probe and Two-Phase Flow Study) from École Polytechnique de Montréal (1986) Ph. D. in Physics (Optical Study of Strain Relaxation in InAs/GaAs Systems) from Université de Montréal (1990) Post-doctoral research at France Telecom's National Center for Telecommunications Studies (1991-1993) Professor Morris specializes in time-resolved optical spectroscopy for semiconductor nanostructure analysis, with core research on carrier/spin relaxation dynamics in quantum systems. Key focus areas include: Quantum dot/well interdiffusion techniques for broadband infrared emitters/detectors Terahertz device development and time-domain spectroscopy applications Ultrafast optical processes influenced by cavity modes, intense electromagnetic fields, and surface/bulk traps Femtosecond-resolution characterization spanning visible to far-infrared spectra His methodologies directly enable innovations in quantum dot photodetectors, terahertz radiation detectors, biomolecule sensors, and quantum computing hardware. He leads an active research group utilizing photoluminescence, transient absorption, electro-optic sampling, and terahertz spectroscopy techniques, with institutional ties to 3IT, IQ, and RQMP driving interdisciplinary materials science advancements.

Michael RohlfingView profile

Professor

• Condensed Matter Physics
• Electronic Structure Theory
• Many-Body Perturbation Theory
• +7 more

Prof. Dr. Michael Rohlfing is a theoretical physicist at the Institute of Solid State Theory , University of Münster. His research focuses on electronic structure , optical excitations , and many-body perturbation theory in 2D materials and hybrid heterostructures . He leads the AG Rohlfing group, which develops and applies ab initio methods to study surfaces , interfaces , and nanoscale systems . Current projects include optical excitations in TMDC heterostructures under pressure (DFG since 2020) and electronic interface states in weakly bound systems (SFB 103, A13). His group investigates phenomena such as excitonic effects , electron-phonon interactions , and spin-orbit-driven surface states , with applications in nanotechnology and optoelectronics . Recent work explores trions , image potential effects , and valley-selective interlayer coupling in materials like CrSBr and MoS2 . Key publications highlight exciton dynamics in 2D systems, strain-tunable optical properties , and first-principles simulations of scanning tunneling microscopy images. His research team is involved in the Collaborative Research Center 1083 (Structure and Dynamics of Internal Interfaces) and the Computational 2D Materials Database (C2DB) . Scientific awards include the Heisenberg Fellowship (DFG, 2001-2004) and recognition for STM simulations and electron correlation studies . Prof. Rohlfing supervises numerous Bachelor’s , Master’s , and PhD students , including recipients of the Infineon PhD Award (Matthias Drüppel, 2017). His group regularly contributes to public workshops and collaborative experimental-theoretical studies .

• Topological Insulators
• Quantum Computing
• Strongly Correlated Systems
• +4 more

Matthew Gilbert is an Associate Professor in the Department of Electrical and Computer Engineering at the University of Illinois at Urbana-Champaign, where he leads the Quantum Transport Theory Group. His research focuses on theoretical condensed matter physics, emphasizing topological materials, quantum transport, and emergent phenomena in low-dimensional systems for next-generation nanoelectronics and quantum computing applications. Research Focus Gilbert's group investigates topological states of matter, including topological insulators, Weyl semimetals, and topological superconductors, with parallel work on quantum computing architectures. Key methodologies include quantum transport modeling, symmetry analysis, and computational techniques for classifying novel phases of matter. His research integrates fundamental theory with device-oriented applications in nanoelectronics and spintronics. Publication Trends Recent works (2023-2025) demonstrate a strong emphasis on topological superconductivity, Josephson junction phenomena, graphene-based quantum devices, and symmetry-driven phase transitions. Recurring themes include nonreciprocal transport, magnetic confinement effects, and the interplay between topology and superconductivity, with consistent application of quantum field theory and mesoscopic physics frameworks. Laboratory Leadership The Quantum Transport Theory Group develops theoretical tools to elucidate emergent quantum phenomena, collaborating closely with experimentalists to explore topological materials, quantum coherence, and low-dimensional systems. The group's work bridges fundamental physics with practical device innovation.

James L. ClemView profile

Associate Professor

• Stellar Populations
• Galactic Evolution
• Photometric Analysis
• +6 more

James L. Clem is an Associate Professor of Physics at Grove City College , where he specializes in observational astronomy and photometric analysis of stellar populations. His work bridges academic research with undergraduate education through the college’s 0.5m telescope at the Grove City College Observatory. Education Ph.D., Physics, University of Victoria (2006) M.Sc., Physics, University of Victoria (2002) B.Sc., Physics, University of Arkansas (1998) Research Interests Dr. Clem’s research focuses on: Galactic evolution through photometric studies of star clusters Time-series analysis of variable stars Extrasolar planet transit monitoring Near-Earth asteroid tracking Supernovae and nova outbursts Photometric calibration techniques Stellar population sequences in ugriz and other photometric systems He employs multi-wavelength observations and modern data analysis methods to study these phenomena. Publications & Research Trends His peer-reviewed work spans 15 years , with recent studies focusing on: Proto-planetary nebulae and R Coronae Borealis stars (2017-2019) Kepler field exoplanet transits (2018) Nova light curves and supernovae (2015-2016) Globular cluster stellar populations (2013-2015) Eclipsing binary star systems (2012) Earlier work concentrated on photometric standard fields (2007-2013) and observational data analysis methodologies. Teaching Dr. Clem teaches: Introductory astronomy (open to all majors) Observational astronomy (upper-level) Introduction to astrophysics (upper-level) He emphasizes hands-on training in observational techniques and data analysis at the college observatory. Public Engagement He advises students to: "take advantage of college resources and opportunities to explore the world and self-identity" , reflecting his commitment to holistic undergraduate development.

• Fundamental Physical Chemistry
• Nanometer-Scale Chemistry
• Near-Field Optics
• +8 more

Kohei Imura is a Professor at the School of Advanced Science and Engineering of Waseda University , where he leads research in Nanophotonics , Plasmonics , and Surface-Enhanced Spectroscopy . His work focuses on the optical properties of metal nanostructures, including gold and silver nanoparticles , and their applications in bioimaging , chemical sensing , and optical field manipulation . Research Areas : Fundamental Physical Chemistry, Nanometer-Scale Chemistry Key Techniques : Scanning Near-Field Optical Microscopy (SNOM), Time-Resolved Spectroscopy, Electromagnetic Simulations His recent publications highlight three-dimensional plasmon mode mapping , chiral nano-optical field control , and enhanced photoluminescence via plasmonic coupling. His studies on gold nanoplates and carbon dot composites reveal mechanisms for improving light-matter interactions at the nanoscale. Scientific Awards include the Minister of Education, Culture, Sports, Science and Technology Award for Young Scientists (2012), Chemical Society of Japan Progress Award (2007), and multiple Spectroscopical Society of Japan recognitions. He actively contributes to academic societies, serving in roles such as JSPS Special Researcher Review Committee and Molecular Science Society Officer .

Dieter BaurechtView profile

Associate Professor

• Spectroscopy
• Biophysics
• Biosensors
• +3 more

Dieter Baurecht is an Associate Professor at the Institute of Physical Chemistry , University of Vienna. His research focuses on Advanced FTIR Spectroscopy , with expertise in Time-Resolved FTIR , Modulation Spectroscopy , and Raman Microscopy . He investigates thin layers, multilayer assemblies, and biological interfaces using specialized Nanostructure Research Equipment . Academic Roles : Associate Professor (since 2005), Deputy Head of Nanostructure Research, IT Officer at Physical Chemistry Institute Teaching : Courses in Physical Chemistry , Quantum Theory , Mathematics for Chemists , and Spectroscopic Lab Work Research Focus Dr. Baurecht’s work bridges Spectroscopy , Biophysics , and Biosensor Development . He leads projects like Mathematical Models for BioFETs (FWF P20871-N13) and ASEA Uninet (2009-2023). His methods include: Quantitative FTIR-ATR for surface layers Raman microscopy for polymer and bacterial analysis Step-Scan and Rapid-Scan FTIR instrumentation Collaborations His research spans institutions such as: University of Vienna Nano Research Austrian Institute of Technology BOKU Vienna (Biologically Inspired Materials) University of Vienna Drug Delivery Platform International partners in Thailand (Ubon Ratchathani, Chiang Mai) Instrumentation BRUKER IFS-66 FTIR with Step-Scan BRUKER Tensor-37 FTIR Shared equipment at Vienna Nano Research Center

Marc Thilo FiggeView profile

Professor

• Host-pathogen interaction of human pathogenic fungi
• Automated processing of microscopic images
• Spectroscopy data analysis
• +7 more

Prof. Dr. Marc Thilo Figge serves as Professor (W3) for Applied Systems Biology at Friedrich Schiller University Jena and Head of the Applied Systems Biology Research Group at the Leibniz Institute for Natural Product Research and Infection Biology (Leibniz-HKI) since 2011. His career spans theoretical physics, computational biology, and infection research, with significant leadership roles in national research initiatives including NFDI4Bioimage, DFG Research Training Groups, and the Excellence Cluster 'Balance of the Microverse'. His research focuses on three interconnected pillars: Host-pathogen interactions of human pathogenic fungi Automated image analysis through the open-source JIPipe platform Spatiotemporal computer simulations of infection dynamics These areas combine experimental microbiology with computational modeling to address fundamental questions in infection biology. Analysis of his 2025 publications reveals strong interdisciplinary output spanning microbiology, computational biology, and biomedical engineering. His work demonstrates consistent methodological innovation in image analysis (particularly through JIPipe) and computational modeling of fungal infections, with increasing applications in rapid diagnostics and organ-on-chip technologies. The publications show growing international collaboration and methodological transfer between fungal pathogenesis and broader infection biology contexts. His scientific recognition includes: medac Research Award (2023 and 2024) Adjunct Fellowship at Frankfurt Institute for Advanced Studies (2011-2017) Editorial roles at PLOS Complex Systems, Biological Imaging, and Scientific Reports Prof. Figge maintains an active supervision program with approximately 14 students across multiple graduate schools, supported by substantial funding from DFG, BMBF, and Leibniz Association initiatives. His group participates in the International Leibniz Research School and Jena School for Microbial Communication, with strong connections to the Microverse Imaging Center's advanced microscopy facilities. He regularly organizes the biennial international symposia on Image-based Systems Biology (IbSB) and Systems Biology of Microbial Infection (SBMI), fostering global collaboration in the field. The Applied Systems Biology group operates at the intersection of physics, computer science, and infection biology, developing computational tools that have gained international adoption in bioimage analysis. Current projects emphasize translation of fundamental research into diagnostic applications, particularly through microfluidics and organ-on-chip technologies.