Prof. Dr. Manfred Lein is a Professor at the Institute of Theoretical Physics within the Faculty of Mathematics and Physics at Leibniz University Hannover. He holds key roles including Dean of Studies in the Faculty and membership in the Executive Board of the Institute. His research focuses on ultrafast quantum phenomena, strong-field ionization, and high-order harmonic generation (HHG), with contributions to attosecond science and machine learning applications in quantum systems. His work bridges theoretical modeling and experimental techniques, including the use of bicircular attoclocks and neural networks for molecular imaging. Positions: Dean of Studies (Faculty of Mathematics and Physics), Executive Board Member (Institute of Theoretical Physics), Professor Contact: manfred.lein@itp.uni-hannover.de | +49 511 762 3291 Lab: Group website: lein group Research interests emphasize electron dynamics in strong laser fields, molecular structure retrieval via HHG, and ultrafast processes. His articles highlight advancements in attosecond timing, Coulomb effects, and quantum control using THz and bicircular fields.
Simon Jappe Lange is an Assistant Professor in the Department of Electrical and Photonics Engineering at the Technical University of Denmark (DTU), where he conducts research in ultrafast infrared and terahertz science. His work bridges academia and industry, with a focus on terahertz imaging, spectroscopy, and layer thickness measurements. He is the founder of Denmark’s first terahertz startup, reflecting his strong engagement with technological innovation and entrepreneurship. His research interests span terahertz engineering, photomultiplier tubes, electric field sensing, and non-invasive biomedical detection. He actively promotes cross-disciplinary and international collaboration to accelerate advancements in terahertz technology. His work is highly applied, with real-world implications in healthcare, sustainability, and industrial monitoring. The recent articles demonstrate a consistent trend in enhancing terahertz detection systems—particularly through the development of photomultiplier tubes and interferometric methods—while expanding applications into biomedical diagnostics such as non-invasive glucose monitoring. His publications reflect a growing influence in both engineering and biomedical optics domains. Correction of systematic low-frequency time delay errors in THz systems (2024) Development of high-sensitivity THz photomultiplier tube (2024) Fourier-transform THz spectroscopy using THz-PMT (2024) Glucose detection via THz attenuated total reflectance (2024) Leveraging nonlinearity in THz photomultiplier tubes (2024) Simon Jappe Lange supervises multiple PhD students across key projects including terahertz spectroscopy for maritime coatings, confined water systems, non-invasive analyte detection, extreme-environment sensing, and novel cross-correlation systems. He has not received any explicitly mentioned scientific awards in the provided text. He is involved in several funded research projects, indicating active grant support. He is affiliated with DTU’s photonics research group, where he contributes to a dynamic team advancing terahertz technologies. His lab appears to focus on experimental terahertz systems, sensor development, and spectroscopic applications, often in collaboration with other leading researchers such as P. U. Jepsen and E. J. R. Kelleher.
Miriam Serena Vitiello serves as Director of Research at the National Research Council of Italy (CNR) and Adjunct Professor of Condensed Matter Physics at Scuola Normale Superiore. She leads the THz photonics and optoelectronics group at CNR's Institute of Nanoscience, specializing in terahertz quantum cascade lasers, nanodetectors, and graphene-based photonics with applications in metrology and near-field imaging. Her academic foundation includes a PhD in Physics from the University of Bari (2006) and postdoctoral research at the same institution (2006-2009), complemented by international research visits to Delft University of Technology, Ludwig Maximilian University of Munich, and University of Paris VII. Vitiello's research focuses on experimental light-matter interactions in low-dimensional systems, particularly two-dimensional nanomaterials (graphene, phosphorene, van der Waals heterostructures, topological insulators). Her work bridges quantum optics , nanophotonics , and far-infrared photonics , yielding innovations in terahertz device physics through nanoscale engineering of electronic and optical properties. Analysis of her 15 most recent publications reveals dominant trends in terahertz quantum cascade laser development (frequency combs, random lasers, wire lasers), 2D-material-based detectors (black phosphorus, hBN heterostructures), and ultrafast terahertz techniques (saturable absorbers, near-field microscopy). Key subfields include topological insulator photonics, van der Waals heterostructure engineering, and quantum transport phenomena in nanoscale systems. Her scientific recognition includes: Frederic Volterra Medal 2020 (Italian Physical Society) Sapio Research and Innovation Award (2018) Guido Dorso International Research Award (2016) SPIE Early Career Award (2015) Sergio Panizza Prize (2012) Vitiello directs substantial research initiatives including an ERC Consolidator Grant (2016-2023), EU H2020 projects (EXTREME IR, MIR-BOSE, TeraApps), and the Graphene Flagship's THz working group. She coordinates the Balzan Research Project with Harvard University and serves on scientific councils for Italy's National Metrology Institute and CNR's Physics Department, with over 250 journal publications and 100+ invited conference presentations demonstrating her leadership. Her THz photonics and optoelectronics group pioneers terahertz device innovation through collaborations with CEITEC (Czech Republic), University of Regensburg (Mercator Fellowship), and international partners in the Graphene Flagship consortium, maintaining cutting-edge facilities for nanofabrication and terahertz characterization.
Ingrid Wilke serves as a Professor in the Department of Physics, Applied Physics & Astronomy at Rensselaer Polytechnic Institute's School of Science, where she has been a faculty member since 2002. Her research focuses on experimental terahertz (THz) wave science and ultrafast laser applications, with particular emphasis on THz radiation sources, detectors, and systems for spectroscopy, imaging, and sensing applications. Her educational background includes a Habilitation in Experimental Physics and Certificate in Higher Education from the University of Hamburg (Germany), a Ph.D. in Physics from ETH Zürich (Switzerland), a Diploma in Physics from the University of Würzburg (Germany), and an M.Sc. in Physics from SUNY Albany (USA). Prior to joining RPI, she conducted postdoctoral research at the University of Tokyo's Institute of Industrial Science and Lawrence Berkeley National Laboratory. Wilke's research explores the interaction of THz waves with natural and artificial materials including clay minerals, biological tissues, semiconductors, superconductors, and ceramics. Her experimental methods encompass time-domain THz spectroscopy, phase-sensitive measurements, and femtosecond optical techniques. She is affiliated with RPI's Center for Materials, Devices, and Integrated Systems (CMDIS) and the Center for Biotechnology and Interdisciplinary Studies. Analysis of her recent publications reveals a consistent focus on THz gas sensing applications, particularly in the 220-330 GHz frequency range for industrial chemicals, refrigerants, and volatile organic compounds. Her work demonstrates strong interdisciplinary connections between physics, electrical engineering, and analytical chemistry, with increasing emphasis on microelectronic implementations of THz detection systems. Her teaching portfolio includes core physics courses such as PHYS 1100 (Physics I), PHYS 2350 (Experimental Physics), and PHYS 4210 (Electromagnetic Theory), reflecting her commitment to both foundational and advanced physics education.
M. Hassan Arbab is an Assistant Professor in the Department of Electrical and Computer Engineering at Stony Brook University. His research focuses on developing novel terahertz emission, detection, and imaging technologies with applications in biophotonics, medical imaging, non-destructive testing, and material characterization. Key projects include the PHASR (Portable Handheld Spectral Reflection) scanner for burn wound assessment and polarization-sensitive imaging of biological tissues. His work integrates electro-optic theory, instrumentation design, and advanced signal processing techniques. Research Highlights: Development of handheld THz imaging systems for clinical burn triage and material analysis Monte Carlo modeling of Mie scattering effects in tissue imaging Integration of physics-based deep learning models for automated wound classification Advancements in THz time-domain spectroscopy for material characterization Key Technologies: Polarization-sensitive THz spectral imaging Wavelet-based signal processing for scattering mitigation Telecentric optics for high-resolution THz imaging Labs/Teams: His research group collaborates with medical professionals and engineers to translate terahertz technologies into clinical and industrial applications.
Yinghui Hu is a Research Assistant at the Photonics & Terahertz Technology group, Ruhr University Bochum , Faculty of Electrical Engineering and Information Technology. She contributes to advanced THz generation and spectroscopy systems. Research Focus : Her work bridges terahertz technology , semiconductor lasers , and optoelectronic devices , with applications in spectroscopy, material analysis, and industrial sensing. Key projects involve VCSEL-based THz sources and asynchronous sampling techniques . Publications : Recent outputs highlight compact THz systems for water absorption studies and paper sorting, alongside laser-driven integrated photonic circuits for high-frequency stability.
Nils Surkamp is a Researcher at Ruhr University Bochum's Faculty of Electrical Engineering and Information Technology, working within the Photonics and Terahertz Technology department. His work bridges semiconductor laser physics with practical applications in terahertz spectroscopy and photonic manufacturing. Key research areas: Terahertz technology, mode-locked diode lasers, photonic integrated circuits, two-photon polymerization, optical metrology Recent trends: Focus on compact and portable THz systems, monolithic laser integration, high-precision manufacturing applications Cooperations: International collaborations with institutions in France, Japan, and the USA
Mattias Rasmussen is a Researcher at the Department of Electrical and Photonics Engineering , Technical University of Denmark (DTU) , affiliated with the Center for Nanophotonics (NanoPhoton) . Education: PhD in Photonics, Technical University of Denmark, 2024 Research Interests: Terahertz Spectroscopy, 2D Materials, Graphene, Nonlinear Optics, Photonics, Silicon Nitride, and THz-TDS. His work explores nonlinear conductivity in graphene, dispersion of nonlinearities in dielectrics, and advanced THz waveform detection. Publications (14): His recent studies include Scanning-Free Solid-State Biased THz Waveform Detection (2025), Measurement of χ(3) Dispersion in SiO₂/SiN (2024), and THz Air Photonics (2024), alongside key contributions to two-color air-plasma THz beam profiling and broadband nonlinear THz spectroscopy. Projects: Completed his PhD project Nonlinear Terahertz Transport Dynamics of 2D Materials in the Ballistic Regime (2020–2024) under supervisors B. Zhou and P.U. Jepsen.
Assoc. Prof. Jan Kunc, Ph.D., is an academic staff member at the Institute of Physics ( Faculty of Mathematics and Physics , Charles University ). His research focuses on 2D materials, semiconductors, and their applications in radiation detectors and quantum technologies. Expertise in graphene/SiC device characterization Specialization in nanotechnology and advanced optical methods Key contributions to plasmon dynamics and THz spectroscopy Jan Kunc earned his Ph.D. at Grenoble High Magnetic Field Laboratory (France) studying magnetoresistance and photoluminescence in 2D electron gases. He later worked as a postdoctoral researcher at Georgia Institute of Technology (USA) under Walt de Heer, focusing on epitaxial graphene growth and device fabrication. His research spans graphene/SiC heterostructures, terahertz conductivity, optical pump-probe spectroscopy, and ultrafast plasmon dynamics. Articles demonstrate expertise in Fourier-transform infrared spectroscopy, photoluminescence, and nanoscale modeling of band gaps and Schottky barriers. Recent publications highlight work on terahertz plasmon interactions , graphene nanoribbon conductivity , and straintronics effects . Experimental methods include scanning electron microscopy, electron beam lithography, and advanced spectroscopic techniques like time-resolved THz spectroscopy and Pockels effect mapping. He works in the Magnetooptic laboratory (room L023) and Heavy Laboratories Troja , Prague. Contact: jan.kunc@matfyz.cuni.cz .
Dr. Luminita M. HRIB is a Scientific Researcher III at the National Institute of Materials Physics (NIMP), working in the Laboratory of Complex Heterostructures and Multifunctional Materials. She has been with NIMP since 2011 and previously served as a Research Assistant at the Faculty of Physics, Alexandru Ioan Cuza University of Iasi from 2007-2008, and as a Technician at the National Institute of Research & Development for Technical Physics in Iasi from 2006-2007. She also completed a study stage at the Laboratoire de Physique des Lasers, Atomes et Molécules at Université Lille 1 in France. Education: PhD in Physics from Alexandru Ioan Cuza University of Iasi (2011) MSc in Physics (Physics of advanced materials. Nanotechnologies) from Alexandru Ioan Cuza University of Iasi (2009) BSc in Engineering Physics from Alexandru Ioan Cuza University of Iasi (2007) Dr. HRIB's research focuses on the preparation and electrical characterization of ferroelectric and magnetoelectric heterostructures. Her work spans multiple disciplines including materials science, solid-state physics, and nanotechnology. She investigates the electrical properties of epitaxial thin films, particularly Pb(Zr,Ti)O 3 -based systems, examining how interface effects, polarization orientation, and structural properties influence functional behavior. Her research has important implications for applications in non-volatile memory, memcomputing, and multiferroic devices. Analysis of her 15 most recent publications reveals a consistent focus on ferroelectric and multiferroic heterostructures, with particular attention to interfacial phenomena, polarization effects, and electrical characterization. Her work demonstrates expertise in advanced characterization techniques including photoelectron spectroscopy, capacitance-voltage measurements, and structural analysis. The research shows progression from fundamental studies of polarization mechanisms toward applications in novel electronic devices. Dr. HRIB has coordinated one national project (MC694/2018 - UEFISCDI) and co-authored a book chapter with John Wiley & Sons (2016). She is also a co-author of one OSIM patent (A 2017 00109). With 28 publications in Web of Science journals, an h-index of 10, and 437 citations (excluding self-citations), Dr. HRIB has established herself as an active researcher in the field of functional materials. Her work primarily centers on complex heterostructures with potential applications in next-generation electronic devices.
Dr. Daniel Schick is a Leibniz Junior Research Group Leader at the Max Born Institute for Nonlinear Optics and Short Pulse Spectroscopy in Berlin, Germany. His research focuses on ultrafast magnetism, spin dynamics, and coherent phonon interactions in nanoscale systems. He leads the group Complex Spin Structures in Time and Space , contributing to projects 3.2 and 3.3 on solids, nanostructures, and transient structures. His work integrates resonant magnetic scattering, XMCD spectroscopy, and ultrafast X-ray techniques to explore antiferromagnetic systems and spin-phonon coupling. Education: Ph.D. in Physics (2013), University of Potsdam Diploma in Physics (2009), University of Rostock Erasmus exchange (2006), Umeå University Research Interests: Dr. Schick investigates ultrafast magnetization dynamics using extreme ultraviolet (XUV) and soft X-ray spectroscopy. Key areas include the interplay between spin and phonon dynamics in antiferromagnetic materials, element-specific probing of magnetic moments, and time-resolved X-ray scattering for studying transient structures. His experimental tools include laser-driven plasma sources and tabletop setups for picosecond time resolution. Articles Trends (2022–2025): Recent work emphasizes ultrafast magnetism in nanoscale systems, with breakthroughs in observing spin reorientation in multiferroics and quantifying ultrafast spin dynamics. Studies on multi-THz phonons and all-optical switching highlight advancements in coherent control of magnetic and structural phases. The use of resonant four-wave mixing and XUV transient gratings expands capabilities for nanoscale spin wave imaging. Grants & Advising: No specific grants are listed, but his role as a junior group leader implies ongoing funding. No student advisees are documented here. Labs/Teams: Maintains the Electron and Spin Dynamics group (B1) at the Max Born Institute, collaborating with synchrotron facilities (e.g., BESSY II) and international institutions like ICFO (Barcelona). Key tools include picosecond laser-driven X-ray sources and advanced time-resolved setups.
Prof. Francis Hindle, affiliated with Université du Littoral Côte d’Opale and the Laboratoire de Physico-Chimie Moléculaire (LPCA), is a leading expert in terahertz (THz) spectroscopy and optical instrumentation. His career spans a PhD in optical tomography from the University of Manchester (2000) and postdoctoral work on femtosecond laser inscription of silica, followed by his appointment at LPCA in 2004 and promotion to Professor in 2019. Current research priorities include: Development of photomixing sources for continuous-wave THz generation Design of high-resolution THz spectrometers using cavity ring-down, chirped pulse, and frequency comb techniques Frequency and phase locking systems for diode lasers Heterodyne receiver architectures for molecular analysis Instrumentation for gaseous sensing in industrial and atmospheric contexts His recent publications highlight advancements in THz frequency comb resolution, cavity-assisted detection, and explosive vapor sensing. Notable work includes Fabry–Perot interference suppression in THz gas cells and photomixing-driven free induction decay analysis. Applications span environmental monitoring (greenhouse gases), food safety (monitoring spoilage), and security (explosive detection). Hindle’s expertise in coherent synchrotron radiation, laser-based THz systems, and molecular rotational spectroscopy positions him at the forefront of applied THz science.
M. Hassan Arbab is an Assistant Professor in the Department of Electrical and Computer Engineering at Stony Brook University. His research focuses on advancing terahertz (THz) emission, detection, and imaging technologies with applications in biophotonics, medical imaging, non-destructive testing, and material characterization. His work integrates electro-optic theory, instrumentation development, and signal processing to overcome challenges in imaging through scattering media and enhancing diagnostic accuracy. Key research areas include THz polarimetric imaging for burn wound assessment, carbon fiber composite analysis, and corneal imaging. He developed the Portable Handheld Spectral Reflection (PHASR) scanner, a portable device enabling clinical applications in burn triage, material defect detection, and medical diagnostics. His team employs machine learning and physics-based models to interpret THz data, achieving breakthroughs in burn injury classification and material parameter extraction. Arbab's contributions span innovative imaging systems like hyperbolic-elliptical lens pairs for spherical surface imaging and telecentric scanning optics. His instrumentation advances include high-speed THz time-domain spectroscopy (THz-TDS) systems with improved resolution and field-of-view. He explores scattering mitigation techniques using wavelet transforms and Monte Carlo simulations to enhance THz imaging in turbid media. Recent clinical studies demonstrate the PHASR scanner's efficacy in non-invasive burn depth determination and wound healing prediction. His work bridges fundamental THz physics with practical applications in healthcare and engineering, supported by interdisciplinary collaborations in biomedical engineering and materials science.
Dr. Andrew Burnett is an Associate Professor in the School of Chemistry at the University of Leeds, within the Faculty of Engineering and Physical Sciences. His research focuses on terahertz spectroscopy and computational chemistry, with applications in explosives, pharmaceuticals, and biological molecules. His educational background includes: PhD in Electrical Engineering, University of Leeds (2008) MChem in Chemistry with Pharmaceutical and Forensic Science, University of Bradford (2004) Burnett's research is centered on the development and application of terahertz (THz) spectroscopic techniques, particularly THz-time domain spectroscopy (THz-TDS), for studying a variety of materials including explosives, drugs-of-abuse, pharmaceutical polymorphs, and proteins. He has also made significant contributions to the application of solid-state density functional theory for interpreting THz and infrared spectra of crystalline materials, co-authoring the analysis code PDielec. His recent work aims at developing non-linear THz spectroscopic methods to investigate vibrational coupling and energy transfer. He has been awarded several prestigious fellowships, including: EPSRC Postdoctoral Fellowship (2011) EPSRC Early Career Fellowship (2016) University Academic Fellowship (2017) Burnett has held positions at the University of Leeds since completing his PhD, initially as a postdoctoral fellow under the FP6 TERANOVA project and a Leverhulme Trust project, then moving to the Faculty of Biological Sciences in 2011, and joining the School of Chemistry in 2015 as a Teaching Fellow. He was promoted to Associate Professor in 2022. In education, he teaches physical chemistry, computational chemistry, and spectroscopy. He actively supervises PhD students and welcomes research enquiries in his areas of expertise.
Dr. Matthew Reid is a Professor in the Department of Physics at the University of Northern British Columbia within the Faculty of Science and Engineering. He holds a PhD in Electromagnetics from the University of Alberta and a BSc in Mathematics and Physics from UNBC. Professor, Department of Physics, UNBC PhD, Electrical and Computer Engineering, University of Alberta (2005) BSc, Mathematics and Physics, UNBC (1999) Research Expertise Dr. Reid specializes in ultrafast phenomena with a focus on terahertz spectroscopy and nonlinear optics . His work explores: Generation and detection of terahertz radiation Nonlinear optical response at semiconductor surfaces Industrial applications of THz imaging Polarization-sensitive THz systems Waveform modulation in doped semiconductors Anisotropic electron dynamics in condensed matter His recent publications demonstrate an emphasis on terahertz single-pixel imaging , polarization modulation techniques , and industrial applications in wood science and semiconductor analysis.
