Mojca Jazbinsek is a Senior Lecturer at the Zurich University of Applied Sciences School of Engineering , leading the THz Photonics team. Her research focuses on Terahertz Photonics , Nonlinear Optics , and Organic Crystal Engineering for optoelectronic applications. Specializes in molecular phonon-mode engineering and broadband THz generation Develops organic electro-optic materials for high-efficiency THz wave sources Works on stability evaluation for perovskite solar modules Recent publications highlight innovations in chiral cationic chromophores , symmetry-reduced organic crystals , and phonon-suppressed THz generators . Her work enables compact THz spectroscopy systems with applications in materials testing and biomedical diagnostics. Key collaborations include co-development of ultrabroadband THz spectrometers and organic σ-hole crystals with enhanced nonlinear optical responses.
Dr. Somnath Ghara is a Researcher in Experimental Physics V at the Institute of Physics, Faculty of Mathematics, Natural Sciences, and Materials Engineering, University of Augsburg. His research focuses on condensed matter physics with emphasis on magnetism, multiferroics, and topological materials. He investigates phenomena like domain wall dynamics, magnetoelectric coupling, and antiferromagnetic spintronics using advanced material systems. Research Interests: Dr. Ghara explores: Topologically protected surfaces and their electronic behaviors Advanced functional materials for spintronic applications Electric-field control of magnetic states in antiferromagnets Conductive domain walls in Mott insulators and oxides Magnetodielectric effects in perovskite and spinel systems His recent publications (2018-2025) demonstrate consistent focus on: Nanoscale manipulation of magnetic textures (skyrmions/domain walls) Ultrafast electric control of antiferromagnetic states Structure-property relationships in multiferroic materials Novel characterization techniques for complex magnetic phases Dr. Ghara is affiliated with the Experimental Physics V research group, collaborating on projects involving magnetoelectric phenomena and quantum materials. No awards, students, or grant information is currently documented.
Anna Galler is a Research Fellow at the Institute of Theoretical Physics - Computational Physics, Graz University of Technology (TU Graz), since 2024. She has held prestigious fellowships including FWF Elise-Richter and Schrödinger Fellowships, and has been a Visiting Researcher at Georgetown University and Max Planck Institute. Research Focus : Electronic structure of correlated materials, light-matter interaction in solids, quantum entanglement, and historical/philosophical aspects of quantum mechanics. Key Projects : FWF-funded project 'FWF - TMDCorr' on transition metal dichalcogenides in non-equilibrium. Her work spans computational material science and quantum many-body physics , with method development in diagrammatic DMFT extensions. Recent publications explore 2D materials, ultrafast optical excitations, and rare-earth semiconductors. Scientific Awards : FUTURA Career Award (2020), FWF Erwin-Schrödinger Fellowship (2019-2021), Promotio sub auspiciis Praesidentis (2018), and Proexcellentia scholarships. Education : PhD in Physics (TU Wien, 2017), BSc and MSc in Technical Physics (TU Wien), BA in Philosophy (Universität Wien).
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.
Pratik Sen is a Professor in the Department of Chemistry at the Indian Institute of Technology Kanpur , specializing in fluorescence and ultrafast spectroscopy. He has been a faculty member at IITK since 2008. Education PhD (2006), IACS Jadavpur M.Sc. (2001), Visva-Bharathi University Research Interests Prof. Sen’s laboratory focuses on mechanistic investigations of photo-induced processes in real time, covering: Ultrafast Laser Spectroscopy Even-Order Nonlinear Spectroscopy Single-Molecule Spectroscopy Dynamics of Biological Macromolecules (proteins, DNA, lipids) Nanoparticles and Interfaces Confined Environments The group employs femtosecond transient absorption, fluorescence up-conversion, TCSPC, steady-state fluorimetry, and custom-built fluorescence correlation spectrometers to probe excited-state relaxation dynamics from femtoseconds to nanoseconds. Selected Publications His recent publications (2011–2013) reveal a strong emphasis on elucidating excited-state pathways of biologically and materially relevant chromophores, exploring protein stability, solvent effects, and interfacial phenomena. Awards & Fellowships P. K. Kelkar Research Fellowship, Young Faculty Research Fellowships, IITK (2015) Young Scientist Medal, Indian National Science Academy, New Delhi (2013) Laboratory & Facilities The group laboratory is equipped with: Femtosecond transient absorption spectrometer Femtosecond fluorescence up-conversion spectrometer Picosecond TCSPC system Steady-state fluorimeter & spectrophotometer Home-built fluorescence correlation spectrometer Located in Core Lab 101B, Department of Chemistry, IIT Kanpur, Kanpur 208016, India.
Professor R. Vijaya is a distinguished faculty member in the Department of Physics at the Indian Institute of Technology Kanpur, specializing in Photonics. Previously, she served as a faculty member at IIT Bombay from 1997 to 2011 before joining IIT Kanpur. Her research spans multiple areas of optical science and technology. Professor Vijaya completed her PhD and M.Sc. at IIT Madras, following her B.Sc. at Meenakshi College, Madras. Her academic journey has positioned her as a leading researcher in photonics and related optical technologies. Her research focuses on Photonics, Nonlinear Optics, Fiber Optics, Photonic crystals, and Optical Nanostructures. Professor Vijaya's work explores the fundamental properties and applications of light in various media, with particular emphasis on developing novel optical devices and understanding light-matter interactions at the nanoscale. Her research bridges theoretical understanding with practical applications in optical communications and sensing technologies. Analysis of Professor Vijaya's recent publications reveals a strong focus on fiber lasers, photonic crystals, and nanostructures. Her work demonstrates expertise in both theoretical modeling and experimental implementation, with particular attention to nonlinear phenomena in optical systems and the development of novel photonic devices with enhanced functionality. SPIE Visiting Lecturer (2006 – ongoing) Multiple best thesis/paper/poster awards received by group members Professor Vijaya actively mentors PhD students including Ummer K.V., Suchita, Govind Kumar, Arpita Haldar, and Pratyasha Sahani. Her research group has produced significant contributions to the field of photonics, with publications in high-impact journals including Journal of the Optical Society of America, Applied Physics B, and Nanophotonics. Her research group maintains strong connections with professional societies including the Optical Society of America, SPIE, and IEEE, where she holds senior membership. These affiliations facilitate collaborative research and provide students with opportunities to present their work at international conferences.
Sylwia Babicz-Kiewlicz is an Assistant Professor at the Department of Metrology and Optoelectronics within the Faculty of Electronics Telecommunications and Informatics at Gdańsk University of Technology. She maintains an active research profile spanning measurement science and educational methodologies, with particular expertise in atomic force microscopy applications and innovative teaching approaches. Her research interests encompass atomic force microscopy (especially higher harmonic imaging for corrosion monitoring), medical diagnostics through phase microscopy, and educational technologies focused on gamification and assessment automation. Dr. Babicz-Kiewlicz has developed specialized measurement systems for phase object observation and corrosion process monitoring, while simultaneously creating innovative approaches to student assessment in metrology education. Analysis of her publication trends reveals a strategic evolution from technical measurement research (2010-2018) toward educational research (2021-2025), with recent work examining gamified lecture formats, automated assessment systems using Moodle, and pandemic-era teaching adaptations. This dual expertise positions her uniquely at the intersection of advanced metrology and educational innovation in technical fields. With 23 publications documented across scientific domains and educational research, her work demonstrates consistent scholarly contribution. Her profile indicates two notable achievements though specific details aren't provided in the available materials. Dr. Babicz-Kiewlicz has been extensively involved in academic instruction with 128 documented teaching activities. Her educational research focuses on practical improvements to metrology education, including automated assessment systems, gamification techniques, and adaptations for remote learning environments - all aimed at enhancing student engagement and learning outcomes in technical subjects. Her technical contributions include development of specialized measurement systems for corrosion monitoring, medical diagnostics applications, and security systems including RFID-based laboratory protection and internet camera monitoring solutions, demonstrating applied research that bridges theoretical concepts with practical implementations.
Dr. Gabriel Zieger serves as Group Leader (Arbeitsgruppenleiter) in the Photonics and Quantum Detection Department at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) in Jena, Germany, where he heads the IR Radiation Detection working group. His research spans advanced materials engineering with particular focus on nanoporous platinum structures, thermoelectric materials, and infrared detection systems. With continuous publication output from 2017 through 2025, Dr. Zieger maintains an active research program within this photonics research institute. Dr. Zieger's research interests center around the development and characterization of novel photonic materials, particularly platinum-based nanostructures for infrared applications. His work explores electrochemical fabrication methods for nanoporous materials, optical properties of nanoscale structures, and energy conversion technologies. He investigates how material composition and nanostructure affect optical absorption, electrical conductivity, and thermoelectric performance across various applications from security imaging to wearable energy harvesting systems. His research bridges fundamental materials science with practical device engineering for photonics applications. Analysis of Dr. Zieger's publication record reveals consistent focus on material engineering for photonics applications, with particular emphasis on platinum-based nanostructures for infrared detection. His work demonstrates progression from fundamental studies of nanoporous platinum growth mechanisms toward increasingly applied research in thermoelectric devices and security imaging systems. The interdisciplinary nature of his publications spans materials science, optics, electrochemistry, and device engineering, showing collaboration across multiple research groups at Leibniz-IPHT. Recent publications indicate growing emphasis on practical applications including textile-based energy generation and terahertz security cameras. As Arbeitsgruppenleiter, Dr. Zieger leads the IR Radiation Detection research group, which appears to focus on developing advanced materials for infrared sensor applications. His laboratory work involves electrochemical deposition techniques, materials characterization using electron microscopy and spectroscopy, and device testing for optical and thermoelectric properties. The group maintains strong collaborative ties within Leibniz-IPHT, particularly with researchers working on nanomaterials, sensor development, and photonic devices.
Prof. Dr. Ralph Ernstorfer is a full professor at Technische Universität Berlin's Institute for Optics and Atomic Physics, where he leads the Ultrafast Nanoscience group. He simultaneously holds a Max Planck Fellowship at the Fritz Haber Institute's Department of Physical Chemistry, heading the Structural & Electronic Surface Dynamics research group. His dual affiliation enables cutting-edge research in ultrafast phenomena. Research Focus: Ernstorfer's group investigates out-of-equilibrium electronic and atomic structures in solids and heterostructures using advanced ultrafast techniques. Core methodologies include: Time- and angle-resolved photoelectron spectroscopy (trARPES) Femtosecond electron diffraction and microscopy Ultrafast optical spectroscopy Current research themes encompass exciton dynamics in 2D materials, topological properties of quantum materials, light-induced phase transitions, and machine learning applications in spectroscopy. Awards & Recognition: Max Planck Fellowship (2022-2027) for collaborative research on ultrafast electron dynamics in nanoscale materials Academic Leadership: Ernstorfer advises doctoral candidates including Tania Mukherjee and leads multiple funded projects: ERC project 'FLATLAND' studying electron-lattice-spin correlations in 2D semiconductors DFG projects within CRC 951 HIOS and SPP 2244 2D Materials consortium Coordination of TRR227 collaborative research network on ultrafast spin systems He oversees laboratories at both TU Berlin and FHI equipped with MHz XUV lasers, femtosecond electron diffractometers, and multidimensional ARPES systems.
Michael Scott Belsley is an Associate Professor with Habilitation at the University of Minho, Portugal, affiliated with the Department of Physics. His office is located in Building 06.01.17.10 on the Gualtar Campus. Contact information includes phone numbers 253 604 339 / 604 060 and email belsley@fisica.uminho.pt . He completed his PhD at the Joint Institute for Laboratory Astrophysics (JILA), University of Colorado, under Dr. John Cooper, focusing on far-wing spectroscopy of atomic collisions. He later conducted postdoctoral research at the University of Oxford (with Professor Paul Ewart) on four-wave mixing techniques for gas-phase collisions, and at the University of Oregon (with Professor Michael Raymer) on non-classical states of light. Since establishing his research group at the University of Minho in 1992, his experimental work spans: Nonlinear optical materials : Development and characterization Quantum & ultrafast optics : Spectroscopy, metrology, light scattering Complex systems : Energy transfer dynamics, light propagation in random media Collaborations : Cold atomic gases with Nobel laureate Alain Aspect's group
Kristian Hantke is a Senior Researcher in the Department of Dynamics of Complex Fluids at the Max Planck Institute for Dynamics and Self-Organization in Göttingen, Germany. His primary focus is on nonlinear laser spectroscopy, particularly the development and application of Coherent Anti-Stokes Raman Scattering (CARS) microscopy for non-invasive analysis of biological specimens and material science samples. Hantke received his academic training at the University of Marburg, Germany: 2000: BSc Honours Physics (First Class) 2002: Diploma in Physics with thesis on "Optical properties of (GaIn)(NAs)/GaAs" 2005: PhD in Physics with thesis on "Influence of nitrogen on the photoluminescence of metastable III-V nitrides" 2005-2007: Post-doctoral researcher at University of Marburg Since 2007: Senior researcher at Max Planck Institute for Dynamics and Self-Organization Hantke's research centers on designing and implementing advanced laser laboratory systems, with particular emphasis on CARS microscopy development. He has engineered a dual-CARS microscope system utilizing a Nd:Vanadate pump laser coupled with two optical parametric oscillators, enabling simultaneous detection of two chemical species or enhanced signal-to-noise ratios. His ps-CARS laser system employs picoTRAIN technology delivering approximately 6ps pulses with multiple wavelength outputs spanning from 532nm to 2300nm. This equipment allows for label-free, high-resolution imaging through vibrational Raman spectroscopy without requiring sample labeling. Analysis of Hantke's publication record from 2002-2012 reveals a clear research trajectory evolving from fundamental semiconductor physics toward applied optical techniques. His early work focused on quantum well structures, photoluminescence properties of nitrogen-containing III-V semiconductors, and carrier dynamics. The more recent publications demonstrate a strategic shift toward developing and applying CARS microscopy techniques. His publications span multiple disciplines including semiconductor physics, materials science, laser technology, and optical engineering, with consistent emphasis on quantum heterostructures, photoluminescence spectroscopy, and advanced imaging methodologies.
Göran Johansson is a Professor of Applied Quantum Physics at Chalmers University of Technology in Gothenburg, Sweden. Since January 1, 2025, he has served as the director of the Wallenberg Centre for Quantum Technology, a major research initiative spanning from 2018 to 2030. His academic career is centered on quantum physics research with a focus on both fundamental phenomena and practical quantum technology applications. Professor Johansson's research spans quantum physics, quantum technology, and quantum computing. He investigates fundamental quantum mechanical effects such as the dynamic Casimir effect, which describes photon generation from vacuum when a mirror accelerates at relativistic speeds. His applied research focuses on building quantum computers that leverage quantum superposition and entanglement to solve problems beyond the reach of classical supercomputers, with potential applications in drug discovery, artificial intelligence, and optimization problems like traffic planning. His work bridges theoretical quantum physics with practical implementation in superconducting circuits. An analysis of his recent publications reveals a strong focus on quantum computing hardware, particularly superconducting qubits and quantum processors. His research addresses key challenges in quantum computing including decoherence, quantum gate fidelity, quantum error correction, and quantum state engineering. There's a clear progression toward more complex quantum systems, with recent work exploring multi-qubit gates, quantum algorithms for practical applications, and integration of quantum processors. His publications consistently appear in top physics journals including Physical Review Letters, Physical Review A/B, and npj Quantum Information. Professor Johansson has received two significant awards for his contributions to quantum physics: Edlund Prize 2016 from the Royal Swedish Academy of Sciences Albert Wallin Science Prize 2015 from the Royal Society of Science and Letters in Gothenburg He leads or participates in multiple major research projects including the Wallenberg Centre for Quantum Technology (2018-2030), Quantum Networks with Delay and High-Impedance Transmission Lines (2022-2025), Quantum Information with Microwaves and Surface Acoustic Waves (2018-2021), and Quantum Plasmonics (2017-2022). These projects involve collaborations with numerous researchers across Chalmers and with external partners, supported by funding from the Swedish Research Council (VR) and the Knut and Alice Wallenberg Foundation. As director of the Wallenberg Centre for Quantum Technology, Professor Johansson oversees one of Sweden's largest quantum research initiatives, which includes a broad team of researchers working on quantum computing, quantum communication, and quantum sensing. His research group focuses on superconducting quantum circuits, exploring both fundamental quantum phenomena and practical implementations for quantum information processing. The group works extensively with microwave quantum optics and has made significant contributions to the understanding and manipulation of quantum states in superconducting systems.
Associate Professor Thach Nguyen is affiliated with the School of Engineering at RMIT University. His research focuses on integrated photonics, nonlinear optics, and quantum optics, with applications in mid-infrared spectroscopy, waveguide design, and optical device fabrication. He supervises projects on topics such as quantum optics on lithium niobate platforms, energy-efficient neuromorphic accelerators, and hybrid microfluidics for diagnostics. His work spans photonics integration, material characterization, and advanced optical systems. Key research areas include lithium niobate-based devices, silicon nitride waveguides, and synthetic frequency dimension engineering. Teaching interests include integrated optics and silicon photonics. His research has led to innovations in photonic CNNs for image processing, programmable silicon photonics, and fiber/chip-based supercontinuum sources. Collaborations emphasize hybrid integration, energy-efficient architectures, and novel photonic phenomena.
Dr. Jiang Cao is a Lecturer at the Department of Information Technology and Electrical Engineering at ETH Zürich. His research focuses on quantum transport phenomena in nanoscale devices, with an emphasis on ab initio simulations of electronic and optoelectronic systems. Key areas include nanoelectronics, thermoelectric materials, and 2D material-based devices. He specializes in advanced computational methods such as the GW approximation and non-equilibrium Green's functions for modeling quantum transport and device performance. Dr. Cao’s work spans topics like spin-charge qubits in van der Waals heterostructures, electron-electron interactions in nanodevices, and exascale simulations for nanoelectronics. His contributions include developing the Jiezi open-source Python framework for quantum transport simulations. His research addresses challenges in next-generation transistors, photovoltaic effects, and ultrafast material characterization. His recent articles highlight advancements in strained FinFET quantum devices, bulk photovoltaic effects in centrosymmetric materials, and the role of carrier-carrier interactions in sub-threshold transistor behavior. These studies bridge fundamental physics with practical device engineering, targeting applications in high-performance electronics and energy-efficient technologies.
Alireza Marandi is a Professor of Electrical Engineering and Applied Physics at the California Institute of Technology (Caltech), leading the Nonlinear Photonics Laboratory. He holds academic positions since 2017, including Visiting Associate (2017-18), Assistant Professor (2018-24), and current Professor (2024-). His research focuses on nonlinear photonics, ultrafast optics, quantum optics, and optical information processing, with applications in sensing, computing, and spectroscopy. Marandi earned a B.S. from the University of Tehran (2006), M.S. from the University of Victoria (2008), and Ph.D. from Stanford University (2013). Research interests include nanophotonic devices, optical frequency combs, mid-infrared photonics, and topological photonics. His lab develops technologies like integrated optical parametric oscillators, ultrafast lasers, and neuromorphic photonic systems. Awards include the 2023 DARPA Young Faculty Award and a Sloan Fellowship. He advises students in advanced photonics research, including Saransh Sharma, Ryoto Sekine, and Louise Schul. His work bridges experimental and theoretical photonics, addressing challenges in quantum computing, optical sensing, and high-speed signal processing. Key innovations include cross-comb spectroscopy, all-optical recurrent neural networks, and topological lasing systems. His lab collaborates on projects funded by DARPA and other agencies, advancing photonic technologies for next-generation computing and sensing applications.
