Find Academic Supervisors

Wolf WüsterView profile

Lecturer

• Applied Optics
• Quantum Optics
• Spectroscopy
• +3 more

Wolf Wüster is a Lecturer at the Zurich University of Applied Sciences (ZHAW) School of Engineering, specializing in Applied Optics. He serves as a Project Leader and Researcher, collaborating with industry partners and academic institutions to advance optical technologies. PhD in Physics, ETH Zurich (2015) MSc in Physics, ETH Zurich (2009-2015) BSc in Physics, ETH Zurich (2004-2009) Wüster's research focuses on Applied Optics, Quantum Electrodynamics, and Spectroscopy. His work includes optical thermometry for cryogenic environments, NMR-based drug discovery, and optoelectronic innovations for medical imaging. Recent projects involve developing diagnostic tools for NMR CryoProbes and high-throughput drug screening platforms. His publications span quantum cascade laser frequency combs, cavity quantum electrodynamics, and optoelectronic material analysis. Key themes include cryogenic sensing, mid-infrared spectroscopy, and quantum dynamics in low-dimensional systems. Current roles include leading cryogenics projects at ZHAW and prior industrial R&D roles at Bruker Switzerland AG and IRSweep AG. He has held academic positions at ETH Zurich since 2009, including Postdoctoral Researcher and Dissertation Fellow.

Elton GraugnardView profile

Associate Professor

• Atomic Layer Deposition (ALD)
• Two-Dimensional Materials
• Nanoscale Materials Synthesis and Characterization
• +7 more

Dr. Elton Graugnard is an Associate Professor in the Micron School of Materials Science and Engineering at Boise State University, where he has worked since 2009. He leads the Atomic Films Lab, focusing on atomic layer deposition (ALD) and atomic layer etching (ALE) of two-dimensional (2D) materials. B.S. in Physics, Centenary College of Louisiana Ph.D. in Physics, Purdue University (2000) M.S. in Physics, Purdue University (1998) His research interests include: Development of ALD/ALE processes for 2D materials like MoS2 DNA nanotechnology applications in sensing and molecular engineering Nanoscale materials characterization using STM and AFM Photonic crystals and dielectric material processing Recent research trends highlight his work in: Optimizing contact resistance in semiconductor materials (2025) Advancing sodium ion battery electrode materials through Li doping (2025) Corrosion behavior analysis in magnesium alloys (2025) Biomedical device coatings with tunable degradation (2024) Scientific recognition includes: 2024 Journal Reviewer for Physical Review Letters, Physical Review B, Advanced Materials 2005 Editor's Choice in Science Dr. Graugnard leads projects funded by the National Science Foundation, including the Center for Atomically Thin Multifunctional Coatings (ATOMIC) and a Controlled-Environment Atomic Force Microscope for nanoelectronic characterization. His work aligns with UN Sustainable Development Goals through applications in energy-efficient electronics and biomedical materials.

Jamie D. WallsView profile

Associate Professor

• Nuclear Magnetic Resonance (NMR)
• Spin Physics
• Chemical Physics
• +5 more

Jamie D. Walls is an Associate Professor in the Department of Chemistry at the University of Miami , College of Arts and Sciences. His research focuses on Nuclear Magnetic Resonance (NMR) methodological development, Spin Physics , and Chemical Exchange Kinetics , with applications in Materials Science , Biomedical Imaging , and Drug Delivery Systems . Research Interests : Walls' work explores the structural and dynamic properties of molecular systems using advanced NMR techniques. His studies address challenges in Glass Structure Analysis , Confined Molecular Reactivity , and Magnetization Localization , often integrating Computational Modeling and Spectroscopic Experiments . Recent projects examine Network Depolymerization in calcium aluminosilicate glasses and Spin-Orbit Coupling effects in 2D quantum systems. Article Trends : His publications highlight interdisciplinary applications of NMR in Chemical Physics , Materials Science , and Biomedical Research . Key themes include Host-Guest Chemistry , Diffusion Coefficient Analysis , and Metabolite Quantification in vivo. Grants & Sponsored Research : Supported by grants from the National Science Foundation (NSF) , American Chemical Society Petroleum Research Fund (ACS PRF) , and Camille and Henry Dreyfus Foundation , Walls applies NMR to solve problems in both fundamental and applied chemistry.

Peter Uhd JepsenView profile

Professor

• Terahertz Engineering
• Time Domain Engineering
• Photonics
• +7 more

Peter Uhd Jepsen is a Professor and Deputy Head of Department at the Department of Electrical and Photonics Engineering, Technical University of Denmark (DTU). He leads the Ultrafast Infrared and Terahertz Science section, focusing on advanced spectroscopic techniques and photonic materials. His work contributes to UN Sustainable Development Goals through innovations in photonics and materials science. Expertise: Terahertz Engineering, Photonics, Graphene, Ultrafast Spectroscopy Institution: Technical University of Denmark (DTU) Department: Electrical and Photonics Engineering Role: Professor, Deputy Head of Department, Head of Section His research centers on terahertz time-domain spectroscopy (THz-TDS), ultrafast photonics, and the optical properties of two-dimensional materials such as graphene and MoS2. He investigates complex conductivity, plasmonic effects, and dielectric permittivity using advanced terahertz nanoscopy and solid-state detection methods. His work bridges fundamental physics with practical applications in sensing, materials characterization, and next-generation optoelectronic devices. The recent publications reveal a strong trend in applying machine learning to THz spectroscopy, probing anisotropic responses in nanostructures, and extracting material properties at the nanoscale. Key fields include terahertz photonics, 2D materials, metamaterials, and nonlinear optics, with interdisciplinary applications in energy, quantum technologies, and biomedical sensing. Dr. Jepsen has supervised multiple PhD students in active projects such as Terahertz Lightwave Electronics and Confined Water in Artificial and Biological Systems . He has secured significant research grants, including projects on perovskite solar cells and non-invasive skin analyte monitoring. His collaborations span institutions in Denmark and internationally. He is involved in the Ultrafast Infrared and Terahertz Science research group at DTU, where he leads experimental efforts in terahertz generation, detection, and spectroscopic applications. The team focuses on developing novel instrumentation and methodologies for ultrafast optical science.

Zhe FeiView profile

Assistant Professor

• Nano-optical physics
• Low-dimensional materials
• Plasmonics
• +3 more

Zhe Fei is an Assistant Professor in the Department of Physics & Astronomy at Iowa State University. He holds a Ph.D. in Physics from the University of California, San Diego (2014), and B.S. (2006) and M.S. (2009) in Physics from Nanjing University. Prior to joining ISU, he worked as an Assistant Scientist at Argonne National Laboratory's Center for Nanoscale Materials. His research focuses on nano-optical physics in low-dimensional materials using advanced near-field techniques, particularly investigating graphene-based systems, exciton-polaritons, and plasmonic phenomena. Key tools include nano-infrared imaging, spectroscopy, and finite-element simulations. Research interests emphasize exploring light-matter interactions in 2D materials, electronic properties of graphene interfaces, and manipulating plasmons for optoelectronic applications. His work bridges nanoscale characterization with device-oriented applications, leveraging hyperbolic metamaterials and van der Waals heterostructures. Recent studies include gate-tunable polaritons in transition-metal dichalcogenides and hot-electron dynamics in graphene. Notable contributions include pioneering nano-optical imaging of epitaxial graphene on SiC, revealing doping inhomogeneities, and studying phonon-polariton coupling in layered systems. His group (ISU Nano-Optics Group) develops novel techniques for ultra-sensitive molecular characterization and nano-scale compositional mapping. No scientific awards are explicitly listed in the provided materials. Grants and advising details are not specified in the text. Laboratory activities focus on experimental nanophotonics and materials science, with emphasis on integrating near-field microscopy with theoretical simulations. Future directions involve advancing tunable plasmonic systems and exploring quantum phenomena in layered material heterostructures.

Jing KongView profile

Professor

• Nanoscale Materials
• Quantum Devices
• Two-Dimensional Electronics
• +1 more

Jing Kong is the Jerry McAfee (1940) Professor in Engineering at MIT's Department of Electrical Engineering and Computer Science. Her research focuses on nanoscale materials and devices, including two-dimensional electronics and quantum systems. She directs advancements in nanofabrication and materials characterization, contributing to semiconductor technology and environmental applications. Research Interests: Her work spans nanoscale materials synthesis, electronic devices, and optical characterization. Key areas include 2D materials (e.g., MoS₂, graphene), quantum devices, and scalable fabrication techniques for industrial applications. Awards: Recipient of the 2024 Postdoctoral Mentoring Award for exceptional guidance in research development. Innovations: Pioneered methods for wafer-scale 2D material integration and sensor design, with recent breakthroughs in catalysis and memory devices.

• Physical Chemistry
• Materials Science
• Condensed Matter Physics
• +3 more

David Bugallo Ferron is a Researcher at the University of Santiago de Compostela, affiliated with the Department of Physical Chemistry and the Research Center in Biological Chemistry and Molecular Materials (CIQUS). He obtained his PhD in 2021 with a thesis titled Thermal conductivity of superlattices and ferroelectric thin films. Effect of boundary sizes and vacancies , supervised by Dr. Francisco Rivadulla Fernández and Dr. Eric Langenberg Perez. His research focuses on advanced materials, including MXenes, thin films, and superlattices, with an emphasis on thermal transport properties, defect engineering, and spectroscopic characterization. Key research areas include the study of MXene-electrolyte interfaces via in situ spectroscopy, oxygen vacancy ordering in SrCoO and SrFeO thin films, and ion-exchange effects in lepidocrocite titanates. He has contributed to computational design of MXenes and doping of CaSnO3 for electronic applications. His work integrates experimental techniques like Fourier-transform infrared spectroscopy, cryogenic microscopy, and molecular beam epitaxy with computational methods such as density functional theory. Recent publications highlight his exploration of substrate-dependent optical shifts in oxyfluorides, hierarchical screening of ductile alloys, and phonon scattering mechanisms in ferroelectric thin films. Though no awards are explicitly mentioned, his interdisciplinary approach bridges materials synthesis, characterization, and theoretical modeling. David’s advising contributions are reflected in his doctoral supervision, and his research aligns with CIQUS’s focus on molecular and biological chemistry. His work has implications for energy materials, electronic devices, and fundamental condensed matter physics.

Prashant V. KamatView profile

Professor

• Light Energy Conversion
• Photocatalysis
• Graphene Chemistry
• +5 more

Prashant V. Kamat is the Rev. John A. Zahm, C.S.C., Professor of Science at the University of Notre Dame, with concurrent appointments in the Department of Chemical and Biomolecular Engineering. His career spans over four decades of pioneering research in physical chemistry and materials science, focusing on semiconductor nanomaterials for light energy conversion. Ph.D. in Physical Chemistry from Bombay University (1979) Postdoctoral research at Boston University (1979-1981) and University of Texas at Austin (1981-1983) Joined Notre Dame faculty in 1983 Dr. Kamat's research bridges photocatalysis, graphene chemistry, and electrochemistry to advance solar cells, hydrogen generation, and chemical sensors. His work emphasizes time-resolved spectroscopy to unravel charge transfer mechanisms in perovskite nanocrystals and hybrid systems. Key themes include bandgap engineering, triplet energy transfer, and electron storage in 2D materials. Recent publications highlight breakthroughs in halide perovskite stability, Mn-doping for triplet state control, and photocatalytic membranes . His group has resolved energy transfer pathways, phase segregation dynamics, and intercalation-induced property modulation in MoS 2 and AgInS 2 systems. Scientific recognition includes the Henry H. Storch Award (2024), Smalley Award (2022), and multiple fellowships (ECS, ACS, AAAS, MRS). As Editor-in-Chief of ACS Energy Letters , he shapes global discourse in energy materials. His leadership in solar photochemistry encompasses DOE-funded programs and industry collaborations, with over 500 peer-reviewed papers (85,000+ citations, h-index 146).

Joseph A. FournierView profile

Assistant Professor

• Ultrafast Spectroscopy
• Mass Spectrometry
• Proton-Coupled Electron Transfer (PCET)
• +4 more

Joseph A. Fournier is an Assistant Professor of Chemistry at Washington University in St. Louis, affiliated with the Department of Chemistry within the Arts & Sciences School. He holds a PhD from Yale University, a BS from the University of Connecticut, and completed a postdoctoral fellowship at the University of Chicago. His research focuses on developing novel experimental techniques combining mass spectrometry, ultrafast spectroscopy, and cryogenic ion trapping to study reaction dynamics, particularly proton-coupled electron transfer (PCET) processes in biological systems and small molecule catalysis. Key projects include investigating tyrosine/tryptophan roles in biological PCET and organometallic catalysts for small molecule activation. Education: BS in Chemistry, University of Connecticut PhD in Chemistry, Yale University Postdoctoral Fellow, University of Chicago Research Interests: Ultrafast spectroscopy Mass spectrometry Cryogenic ion trapping PCET mechanisms in biological systems Small molecule catalysis Awards: 2022 Flygare Award 2021 NSF CAREER Award 2016 Arnold O. Beckman Postdoctoral Fellowship 2011 National Defense Science and Engineering Graduate Fellowship Advising & Grants: NSF CAREER Award supports his research and outreach programs, including the Catalysts for Change and Young Scientist Summer Focus initiatives. The Fournier Lab collaborates on developing next-generation spectroscopic techniques to capture elusive reaction intermediates. Labs/Teams: The Fournier Lab specializes in integrating mass spectrometry with ultrafast spectroscopy to study reaction mechanisms at molecular resolution, focusing on cryogenically cooled systems to isolate transient intermediates.

Paul DaveyView profile

Associate Professor

• Graphene Sensors
• Nanotechnology
• Magnetic Recording Technologies
• +4 more

Dr. Paul Davey is an Associate Professor in Electronics and Embedded Systems at the School of Engineering, Computing and Mathematics, University of Plymouth. He serves as Final Year Projects Manager for modules PROJ324/325/515, Module Leader for Embedded Systems (ELEC240), and Academic Liaison Person (ALP). His research focuses on graphene-based biosensors, magnetic recording technologies, and embedded systems design. He teaches courses including Interfacing Microprocessors, Robotics Projects, and Internet Technologies. Dr. Davey's work contributes to the UN Sustainable Development Goals (SDGs) related to innovation and industrialization, particularly through advancements in sensor technology and sustainable engineering solutions. His research spans nanoelectronics, environmental monitoring systems (e.g., Pb 2+ detection), and biomarker sensing for medical diagnostics. His publications (2003–2022) address graphene field-effect transistors, magnetic recording channel optimization, and energy-efficient DC-DC converters. While no awards are listed, his work demonstrates significant contributions to interdisciplinary fields merging materials science, electronics, and biomedical applications. Dr. Davey’s advising and grant activities are not explicitly detailed in the profile, though his teaching roles suggest active student mentorship. His research aligns with Plymouth’s focus on applied technology and sustainable innovation.

Robert PealeView profile

Professor

• Physics
• Infrared Technology
• Plasmonics
• +4 more

Robert Peale is a full Professor in the Department of Physics at the University of Central Florida (UCF), College of Sciences. His research spans infrared technology, plasmonics, and materials science with applications in astrophysics and semiconductor engineering.

Igor V. RubtsovView profile

Professor

• Multidimensional Infrared Spectroscopy
• Biophysics
• Ultrafast Laser Spectroscopy
• +2 more

Igor V. Rubtsov is Professor and Chair of the Department of Chemistry at Tulane University's School of Science & Engineering. His research develops novel methods for measuring 3D molecular structures in solution using nonlinear femtosecond spectroscopy techniques like two-dimensional IR spectroscopy. Research Focus: Rubtsov Group specializes in ultrafast laser spectroscopy, biophysics, and energy transport mechanisms. Current projects include probing structural fluctuations in enzymes and developing advanced spectroscopic instrumentation. Instrumentation: Designed a fully automated dual-frequency 2DIR spectrometer capable of capturing structural snapshots at physiological temperatures with coverage from 800-4000 cm⁻¹. Recent Publications: Explore vibrational energy transfer in molecular systems, surface-enhanced spectroscopy, and phonon dynamics. Work featured in J. Chem. Phys., PNAS, and Accounts of Chemical Research.

Markus HuberView profile

Assistant Professor

• Ultrafast nanoscopy
• Terahertz spectroscopy
• Quantum materials
• +4 more

Dr. Markus Huber is a Team Leader for Ultrafast Nanoscopy at the University of Regensburg, working within the research group led by Prof. Dr. Rupert Huber in the Department of Physics. His research focuses on cutting-edge nanoscale imaging techniques and ultrafast phenomena in quantum materials. Dr. Huber completed his PhD in Physics at the University of Regensburg (2014-2018), preceded by studies there from 2009-2014. He also spent time studying Physics at the University of Colorado, Boulder (2012). Following his PhD, he conducted postdoctoral research with Tony F. Heinz at Stanford University (2019-2020) and with Rupert Huber at the University of Regensburg (2019) before becoming a Team Leader in 2021. Dr. Huber's research spans several interconnected areas in ultrafast nanoscale physics. His work primarily focuses on developing and applying advanced nanoscopy techniques to study quantum materials at unprecedented temporal and spatial resolutions. Key research areas include: Ultrafast nanoscopy of quantum materials and 2D systems Terahertz spectroscopy and imaging of nanoscale phenomena Light-matter interactions at femtosecond timescales Nanoscale electromagnetic field characterization Investigation of excitonic phases in 2D materials like WSe 2 Development of novel measurement techniques for ultrafast processes Analysis of Dr. Huber's publication record reveals a strong focus on pushing the boundaries of spatial and temporal resolution in nanoscale imaging. His work frequently appears in high-impact journals including Nature family publications, Nano Letters, and ACS Nano. A notable trend is his contribution to the ERC-funded "Orbital Cinema" project launched in July 2023, which appears to focus on visualizing electron dynamics at unprecedented resolution. His research bridges fundamental physics with potential applications in quantum technologies and advanced materials characterization. Dr. Huber leads the "Ultrafast Nanoscopy" team within the larger Huber group at the University of Regensburg. This team appears to be at the forefront of developing new methodologies for observing and controlling quantum phenomena at the nanoscale. The group's work is highly collaborative, involving partnerships with institutions worldwide including Stanford University and various European research centers. Their research is supported by significant funding, including the ERC project "Orbital Cinema" mentioned in the news highlights.

Guangxin NiView profile

Assistant Professor

• Condensed Matter Physics
• Optical Physics
• Nano-optics
• +4 more

Guangxin Ni is an Assistant Professor in the Department of Physics at Florida State University, where he joined the faculty in 2020. His research program focuses on experimental condensed matter physics and nano-optics, utilizing advanced techniques to probe quantum phenomena in two-dimensional materials and van der Waals heterostructures with unprecedented spatial, spectral, and temporal resolution. Dr. Ni received his Ph.D. in Physics from the National University of Singapore in 2013, followed by postdoctoral research at the University of California San Diego (2014-2017) and Columbia University (2017-2019). His technical expertise spans nano-optical imaging, ultrafast spectroscopy, and nano-electronic measurements. His primary research interests involve experimental condensed matter physics and optical physics, specifically using nano-optics coupled with nano-electronics to investigate emergent phenomena in quantum materials. Key areas include two-dimensional materials, van der Waals heterostructures, multifunctional quantum systems, and electromagnetic metamaterials. His group employs visible, infrared, and terahertz nano-imaging alongside ultrafast pump-probe spectroscopy to achieve nanoscale characterization of electronic, magnetic, and lattice dynamics. Analysis of Dr. Ni's recent publications reveals a concentrated focus on twist-engineered quantum materials, polaritons, and electronic correlations. His work frequently explores moiré superlattices in 2D systems, plasmonics in novel quantum materials, and multiferroic phenomena, bridging fundamental condensed matter physics with applications in nanophotonics and quantum information science. Dr. Ni has received exceptional recognition through prestigious early-career awards: Department of Energy Early Career Award (2021) NSF CAREER Award (2022) PRF Early Investigator Award (2023) He leads the active Ni Lab at FSU, supported by these major grants including the NSF CAREER project "Towards Novel Twist Polaritonics in 2D Crystals and Devices." While specific student names aren't provided, he mentors graduate students in the Physics department. His research group maintains state-of-the-art capabilities for nano-optical experiments and collaborates extensively within the quantum materials community.

Martijn WubsView profile

Professor

• Quantum Photonics
• Plasmonics
• Two-Dimensional Materials
• +4 more

Martijn Wubs is a Professor and Group Leader in the Department of Electrical and Photonics Engineering at the Technical University of Denmark (DTU). His research focuses on Quantum Photonics , Plasmonics , and Two-Dimensional Materials , with affiliations to the Center for Quantum Technologies and NanoPhoton – Center for Nanophotonics . He leads the Quantum Photonics of Low-dimensional Systems group, investigating phenomena such as collective photon emission, optical trapping, and light-matter interactions in nanoscale systems. His work spans applications in quantum optics, nanophotonics, and metamaterials. Recent research emphasizes dielectric nanocavities , single-photon sources in 2D materials, and strong coupling in hybrid systems. Over 129 publications and 25 active/finished projects reflect his contributions to topics like plasmonic systems, nonlocal optical effects, and defect engineering in hBN. He supervises multiple PhD students in areas such as nanosensing, optical trapping, and moiré heterostructures. His lab explores quantum emitters in 2D materials , optical trapping mechanisms , and phonon-mediated dynamics , with applications in quantum communication and nanoscale sensing. Collaborations span international institutions, advancing the frontiers of nanophotonics and quantum technologies.