Prof. Dr. Jens Hoßfeld is a faculty member at the Technical University of Central Hesse (THM) , working in the Department of Mechanical Engineering and Energy Technology. His research spans microsystem technology, optics, and optical measurement systems, with a focus on MOEMS (Micro-Opto-Electro-Mechanical Systems) and computer-generated holography . He has contributed extensively to the fabrication of microcomponents using LIGA techniques , optical interconnection systems, and polymeric MEMS applications. Hoßfeld teaches courses such as Microtechnology , Microsystem Technology , and Optoelectronic Systems . He is affiliated with the Institute of Optics and Microsystems (IOM) and has been involved in the development of optical components for parallel optical networks, fast-switchable diffraction gratings, and low-cost multiplexer systems. His work includes publications on topics like rectangular beam shaping , ferroelectric liquid crystals , and excimer laser ablation .
Vijay Balasubramanian is a Professor in the Department of High Energy Physics at Vrije Universiteit Brussel, Belgium. His research spans quantum gravity, string theory, black hole thermodynamics, and the holographic principle, with a focus on spacetime emergence, quantum complexity, and entanglement. He collaborates across disciplines, including cosmology, statistical mechanics, and quantum information theory. Recent projects include Quantum complexity, quantum entanglement and the emergence of spacetime (FWOAL1051, 2022–2025) and studies on black hole microstates, de Sitter space, and stochastic thermodynamics. His work has been cited over 1178 times, with an h-index of 20. 2025 : 2 articles on black hole fluctuations and quantum thermodynamics. 2024 : 3 publications exploring de Sitter space, Hilbert space factorization, and computational energy costs. 2023–2015 : 36+ contributions to journals like JHEP and PNAS, including work on chaos in AdS/CFT and entanglement entropy. Balasubramanian has advised prominent researchers in fundamental physics and maintains international collaborations. His scientific accolades include a high h-index and frequent mentions in academic networks.
Ben Craps is a theoretical physicist at Vrije Universiteit Brussel (VUB) in Brussels, Belgium, where he leads the High Energy Physics research group (HEP@VUB) as a Professor in the Department of Physics. His extensive research portfolio spans fundamental questions in theoretical physics, particularly at the intersection of quantum mechanics and gravity. Craps' research focuses on string theory, holography, and quantum dynamics, with particular emphasis on black hole physics, quantum information, and quantum chaos. His work explores the mathematical structures underlying the AdS/CFT correspondence, quantum complexity measures, and the information paradox in black hole physics. He has made significant contributions to understanding how quantum information behaves in gravitational systems and the connections between different complexity measures in quantum systems. His recent publications (2021-2025) demonstrate a clear trajectory toward understanding quantum complexity in gravitational systems, with particular focus on Krylov complexity, black hole microstates, and the mathematical structure of Hilbert spaces in quantum gravity. His work bridges theoretical physics with quantum information science, creating new connections between these fields. Frans Van Cauwelaert prize (2009) Craps has supervised 38 students throughout his career and currently leads multiple significant research projects including 'Quantum information, chaos and black holes in gravitational holography' (2024-2027), 'Krylov complexity, Anderson localization and spread complexity' (2023-2027), and 'Ensemble averaging and generalized entanglement in the AdS/CFT correspondence' (2023-2026). He is also a key member of the 'High-energy physics (HEP@VUB)' research focus group that runs from 2022-2027. As an active member of the global theoretical physics community, Craps regularly presents at international conferences and workshops on topics including quantum chaos, black hole physics, and microstate geometries. His research group at VUB maintains strong international collaborations and contributes significantly to advancing our understanding of quantum gravity through the holographic principle.
Özgür Yöntem is a Senior Research Associate at the University of Cambridge's Department of Computer Science and Technologies, where he conducts advanced research in the Graphics and Displays Group under Dr. Rafal Mantiuk. His work centers on novel 3D light-field acquisition systems and High Dynamic Range displays, pushing boundaries in visual technology. His academic foundation includes: BSc in Electrical and Electronics Engineering from Bilkent University (2006) PhD in Electrical and Electronics Engineering from Bilkent University (2012), supervised by Prof. Levent Onural Dr. Yöntem's research integrates optical engineering with computational imaging , specializing in glasses-free 3D systems and next-generation display technologies . His work spans fundamental optical signal processing to applied automotive and AR interfaces, with particular innovation in free-form optics and 3D printed optical elements for enhanced visual experiences. Professional recognitions include: Chair of OSA Display Technology Technical Group (2019-2022) IEEE Senior Member status His research demonstrates strong industry translation through the Jaguar Land Rover collaboration on automotive augmented reality displays, while maintaining academic rigor in light-field imaging and digital holography. As a core member of Cambridge's Graphics and Displays Group, he contributes to one of the world's leading visual computing research environments. The Graphics and Displays Group provides specialized facilities for optical prototyping and display evaluation, supporting Yöntem's experimental work on light-field cameras, integral imaging systems, and novel display architectures for both research and commercial applications.
Dr. David R. Smith is the James B. Duke Distinguished Professor of Electrical and Computer Engineering at Duke University's Pratt School of Engineering, with a secondary appointment as Professor of Physics in Trinity College of Arts & Sciences. He serves as Director of the Center for Metamaterials and Integrated Plasmonics at Duke University and holds additional positions as Adjunct Associate Professor at UC San Diego and Visiting Professor at Imperial College London. Dr. Smith received his Ph.D. in Physics from the University of California, San Diego in 1994, following his B.S. degree from the same institution in 1988. His academic credentials have positioned him as a leader in the field of metamaterials research. Dr. Smith's research spans the development and application of metamaterials and plasmonic structures for electromagnetic wave control. His work bridges fundamental physics with practical engineering solutions, particularly in computational imaging using dynamic metasurface apertures. He has pioneered techniques that have revolutionized microwave and millimeter-wave imaging systems, with applications ranging from security screening to nuclear safety. His research also extends to radiation detection, plasma physics for fusion energy, and novel optical devices. Analysis of his recent publications reveals a consistent theme of using metasurface technology to solve challenging problems in electromagnetic wave manipulation, with applications across multiple domains including imaging systems, radiation detection, and wireless communications. His work demonstrates the versatility of metamaterials across different frequency ranges and applications. Fellow of the National Academy of Inventors (2016) Highly Cited Researcher (Thomson Reuters, 2014) Fellow of the Optical Society of America (2013) Top Ten Breakthroughs for 2006 (Science Magazine, for Cloaking) Top 50 Researchers (Scientific American, 2008) Top Ten Breakthroughs for 2003 (Science Magazine, for Negative Index Materials) Top 100 Science Accomplishments for 2006 (Discover Magazine, for Cloaking) Descartes Prize for Research (European Union, 2008) Fellow of the Institute for Electrical and Electronics Engineers (1986) Dr. Smith has secured significant research funding for projects including "Metasurface Antenna for Cloud-Targeting Radar (MACTRad)" (2023-2026), "Metasurface Antennas" (2023-2025), and "Large-scale Adaptive Metamaterial Apertures for Space (LAMAS)" (2023-2024), awarded by MetaCept, Inc., Kymeta Corporation, and NASA. These grants support his innovative work in developing next-generation metamaterial-based technologies. As Director of the Center for Metamaterials and Integrated Plasmonics, Dr. Smith leads a multidisciplinary research team working at the intersection of physics, electrical engineering, and materials science. His laboratory has been instrumental in advancing metamaterials from theoretical concepts to practical applications, particularly in imaging systems and electromagnetic wave control technologies.
Peter J. Christopher is an Assistant Professor at the University of Nottingham and a Research Fellow at the Royal Academy of Engineering. He co-founded spin-out companies Exobotics, ProSpectral, Nanomation, and DropCode, serving as Chief Scientist or Chief Innovation Officer in these ventures. His work intersects optics, holography, and nanowire device manufacturing. Affiliations: University of Nottingham, Royal Academy of Engineering, Exobotics (Chief Scientist), ProSpectral (Chief Innovation Officer), Nanomation (Chief Innovation Officer), DropCode (Chief Scientist), Kyma (Academic Consultant) Research Interests: His research focuses on optics, holography, and photonic engineering. Key areas include computer-generated holography, transmission matrix analysis, phase retrieval algorithms, and real-time holographic projection. He also explores biomedical applications of optical systems and nanowire-based optoelectronics. Publication Trends: Recent works emphasize holographic technologies, nanowire device automation, and robust optical system design. Topics span 2D heterostructures, interferometer phase drift correction, predictive search algorithms, and hardware implementations of holography. His interdisciplinary collaborations bridge physics, computer science, and biomedical engineering. Scientific Awards: Royal Academy of Engineering Research Fellow Outreach and Entrepreneurship: Christopher actively promotes science outreach and drives innovation through spin-out companies. His ventures focus on robotics, laser communications, and advanced optical systems. He also contributes to public engagement via podcasts and media interviews. Contact: Available at peter.christopher@nottingham.ac.uk , pjc209@cam.ac.uk , and other listed addresses.
Pascal Picart is a Professor at Le Mans University, France, and serves as Deputy Director of the Laboratoire d'Acoustique de l'Université du Mans (LAUM UMR CNRS 6613). He is affiliated with the School of Engineering and leads research within the Transducers team, focusing on Optical, Signal and Image Methods for Acoustics. With an extensive publication record including 115-120 journal papers, 27-30 invited talks, over 160 conference proceedings, 7 book chapters, and coordination of 4 books, Picart has established himself as a leading researcher in digital holography and coherent imaging techniques. His primary research interests center on coherent imaging based on digital holography and its applications to acoustics, mechanics, and fluid mechanics. Picart's work spans digital holography , speckle noise reduction , phase imaging , vibration analysis , and optical metrology . His team develops advanced techniques for full-field measurements, with applications ranging from structural mechanics to biomedical imaging and additive manufacturing process monitoring. Recent work emphasizes deep learning approaches for speckle denoising and phase retrieval in challenging conditions. Picart's publication portfolio demonstrates consistent innovation in digital holographic techniques, with recent trends showing increased focus on computational imaging , machine learning applications , and industrial process monitoring . His work bridges fundamental optical research with practical applications in materials science, manufacturing, and acoustics. The interdisciplinary nature of his research connects optics, signal processing, mechanics, and computer science. Fellow of OPTICA (formerly OSA) Member of SPIE, Société Française d'Optique (SFO), European Optical Society (EOS), Club EEA, and IEEE Picart co-founded a startup and has coordinated multiple research projects. His work at LAUM involves both fundamental research and applied projects, with connections to industrial applications in vibration analysis, non-destructive testing, and manufacturing process control. As Deputy Director of LAUM, he oversees one of France's leading acoustics research laboratories with extensive experimental facilities including specialized rooms for acoustic and vibration measurements, opto-acoustic experimentation platforms, and optical metrology equipment.
Jonas Schmid is a researcher affiliated with the Technical University of Munich (TUM) , specifically within the Chair of Acoustics of Mobile Systems . His work bridges computational methods with acoustic engineering, leveraging advanced statistical and machine learning techniques. Email: jonas.m.schmid@tum.de Office: Room 5505.01.534, Boltzmannstr. 15, 85748 Garching bei München Research Focus: Schmid's research centers on: Bayesian inference in acoustic modeling Generative design of acoustic metamaterials Sound field reconstruction techniques Interactive educational simulations for acoustics Integration of machine learning in noise control Visualization of musical instrument acoustics Publication Trends: Recent works demonstrate expertise at the intersection of computational acoustics and machine learning. Key areas include metamaterial design (2021, 2022), Bayesian inference applications (2021-2023), and development of interactive acoustic simulations (2019-2021). Subfields span noise control, room acoustics, and educational technology.
Patrick I Draper is an Associate Professor of Physics and Astronomy at the University of Illinois Urbana-Champaign, holding a primary appointment in the Department of Physics. His office is located in Loomis Laboratory (435 Loomis Laboratory, 1110 W. Green, M/C 704, Urbana, IL 61801), a central hub for physics research at UIUC. Dr. Draper's research spans theoretical high-energy physics with emphasis on Standard Model foundations, Higgs boson dynamics, supersymmetry, and quantum chromodynamics. His fingerprint analysis reveals dominant expertise in Standard Model physics (100%), Higgs boson physics (95%), and supersymmetry (75%), with significant contributions to black hole physics (50%), axion research (48%), and quantum gravity. Recent work demonstrates a strategic expansion into quantum computing, focusing on algorithmic optimizations for quantum simulation and measurement. Analysis of his 2024 publications reveals a dual research trajectory: fundamental investigations in quantum gravity (near-horizon field theory breakdown, de Sitter space entanglement) and practical quantum computing advancements (Pauli string partitioning for expectation value measurements). This synergy between theoretical particle physics and quantum information science highlights his interdisciplinary approach to solving complex problems across multiple domains. Scientific awards: No awards, fellowships, or medals were mentioned in the provided text. Advising and grants: The available information does not specify graduate students, postdoctoral researchers, research grants, or advising activities. Labs and teams: Based at Loomis Laboratory, Dr. Draper collaborates with researchers including T. Banks, M. Karydas, N. Butt, A. Lytle, and B. Reggio. His work engages multiple research groups focused on quantum gravity phenomenology and quantum algorithm development, leveraging UIUC's strong theoretical physics infrastructure.
Professor Nicolas Grandjean is a faculty member at the Swiss Federal Institute of Technology in Lausanne (EPFL), where he has held a professorship since joining in 2004 after a decade-long research career at France's National Centre for Scientific Research (CNRS). Affiliated with EPFL's Physics section, he maintains a dual focus on cutting-edge semiconductor research and innovative physics pedagogy. Grandjean's research centers on III-nitride semiconductor physics, with particular emphasis on GaN, AlN, and InGaN materials systems. His work spans optoelectronic device development (including LEDs, laser diodes, and photonic integrated circuits), defect engineering in quantum structures, and advanced characterization techniques like electron holography. Recent publications reveal strong trends toward narrow-linewidth UV laser development, supercontinuum generation in crystalline waveguides, and resolving fundamental limitations in nitride-based optoelectronics through defect physics. Recognized with EPFL's 2015 Teaching Award in the Physics section, Grandjean employs a distinctive pedagogical approach that prioritizes conceptual understanding over mathematical formalism. His classroom integrates live demonstrations to illustrate physical phenomena, while his 'two-scenario' teaching method accommodates diverse learning levels through parallel conceptual and mathematical pathways. He actively promotes student creativity and independence, viewing these as essential for research innovation. EPFL Teaching Award in Physics Section (2015) Grandjean champions student involvement in research through dedicated laboratory access initiatives. His advocacy for maintaining human-centered teaching in the digital age is evident in his refusal to develop MOOCs that might replace direct knowledge transfer, emphasizing that 'the most important thing is sharing' and that teaching 'fills the space' through storytelling and relationship-building.
Jan Manschot is an Associate Professor in the School of Mathematics at Trinity College Dublin, specializing in the intersection of mathematics and theoretical physics. His work bridges advanced mathematical frameworks with fundamental questions in quantum gravity and particle physics. His core research spans String Theory, Algebraic Geometry, Modular Forms, and Black Hole Physics, with emphasis on mathematical structures underlying supersymmetric gauge theories and Calabi-Yau compactifications. He investigates Donaldson-Witten invariants, BPS state counting, and modular properties of partition functions, revealing deep connections between automorphic forms and quantum field theory dynamics. Analysis of his 2021-2024 publications shows consistent focus on string amplitudes via modular integrals, black hole microstate statistics through indefinite theta functions, and topological twists in supersymmetric QCD. His methodology combines path integral techniques, algebraic geometry of moduli spaces, and computational approaches to solve non-perturbative problems in quantum gravity. No scientific awards were documented in the provided sources. Information regarding academic advising, grant funding, or collaborative teams remains unspecified in available materials, though his research implicitly involves cross-disciplinary engagement with theoretical physics communities.
Chris Akers is an Assistant Professor in the Department of Physics at the University of Colorado. His research focuses on the intersection of quantum mechanics and gravity, particularly exploring quantum mechanical aspects of black holes and the AdS/CFT correspondence. He applies tools from quantum information theory and quantum computation to advance these investigations. Research interests include understanding how quantum computers can aid studies in quantum gravity and the implications of quantum gravitational physics on computational theory. His work bridges theoretical physics with cutting-edge quantum technologies, emphasizing connections between holography, entanglement, and error correction. Publications highlight contributions to holographic duality, black hole interior structure, and quantum extremal surfaces. While no scientific awards are explicitly listed, his work demonstrates significant engagement with foundational questions in theoretical physics. Chris serves as a faculty mentor for students with last names A-B and maintains an office in DUAN F331. His research and teaching reflect a commitment to advancing interdisciplinary approaches in quantum gravity research.
Professor Björn Kampa is a faculty member at RWTH Aachen University specializing in Molecular and Systemic Neurophysiology. Based at Worringerweg 3, Building 5350, Room 0.113 in Aachen, Germany, he leads research on cortical circuit function and neuronal development. His work bridges experimental neurophysiology with computational approaches to investigate fundamental brain mechanisms, particularly in visual processing and neural plasticity. Contact is available via kampa@brain.rwth-aachen.de. Dr. Kampa's research spans Systems Neuroscience , Molecular Neuroscience , and Computational Neuroscience , with emphasis on cortical circuit dynamics, dendritic physiology, and sensory processing. He employs advanced techniques including two-photon calcium imaging, electrophysiology, and computational modeling to study neuronal maturation, visual perception, and the impact of genetic modifications on brain function. His work frequently examines mouse models of retinal degeneration and cortical interneuron function. Analysis of his 2023-2025 publications reveals three dominant research thrusts: First, visual system neuroscience exploring cortical plasticity in degenerative models and sensory enhancement mechanisms. Second, neuronal development focusing on human neuron maturation and dendritic spine dynamics. Third, computational neurotechnology developing spike sorting tools, holography frameworks, and network analysis methods. These themes consistently integrate experimental data with theoretical modeling to address fundamental questions in cortical function.
Prof Pau Figueras is a Professor of Applied Mathematics and Theoretical Physics at Queen Mary University of London, leading the Centre for Geometry, Analysis and Gravitation. His research focuses on General Relativity, Black Holes, Numerical Relativity, and Gravitational Waves, with applications to string theory and holography. He has secured significant grants, including a Royal Society University Research Fellowship and EU Horizon 2020 funding. Research interests include studying black holes in higher dimensions and asymptotically anti-de Sitter spacetimes, employing mathematical techniques and numerical methods. Notable achievements include advancements in modified gravity simulations and gravitational wave modeling. His work spans collaborations on LISA mission prospects and interdisciplinary studies on pandemic impacts. Grants: £1.6M STFC grant for astrophysics research, £179K EU Horizon 2020 for neutron star studies, and £430K Royal Society URF renewal. Awards: Royal Society Fellowships and grants recognizing contributions to numerical relativity and fundamental physics. His research group includes Dr Aron Kovács and leverages tools like GRChombo for simulations. Recent articles address relativistic Navier-Stokes dynamics, scalar-Gauss-Bonnet gravity tests, and cosmic censorship in higher dimensions.
Dr. Steve Lee is a Research Fellow and Head of the Optical Biofluidic Group (OBIG) at the Australian National University, operating within the Division of Genome Sciences and Cancer. Since joining ANU in 2013, he has pioneered advancements in biomedical imaging and optical biophysics, establishing the university's capacity in these fields through interdisciplinary research and technology development. His academic foundation includes a B.Eng with Honors in Electronics from Nanyang Technological University, a PhD in Optics and Biophysics from the University of St Andrews, and postdoctoral training in Biomedicine at Harvard Medical School and Massachusetts General Hospital. Lee's research integrates fluid dynamics, optics, and biological physics to investigate single-cell responses and tissue formation. His group's motto—'invent new optical techniques to precisely quantify the fundamental functions of biological systems'—drives innovations in label-free imaging for quantifying how biofluidic forces and biochemical signals cooperatively regulate cell adhesion and multicellularity. This work directly informs tissue engineering and biomaterial development. His publication portfolio demonstrates consistent leadership in optical imaging modalities, with recent trends emphasizing adaptive optics, holographic techniques, and computational light-sheet microscopy for live-cell and nanoscale analysis across biomedical applications. Lee's scientific contributions are recognized through prestigious awards: Australian Museum Eureka Prize for ANSTO Innovative Use of Technology ARC Discovery Early Career Research Award Royal Society Incoming Fellowship (UK) He actively supervises research students and leads multiple grants including '5D Imaging Flow Cytometry for in vivo Quantification of Biological Fluids' and 'Understanding and controlling thrombus formation'. External roles encompass Scientific Advisory Board membership for the ACRF Centre for Intravital Imaging and Scientific Directorship at Ability Optics Pty Ltd, which commercializes his imaging technologies through CSIRO On Accelerator. The Optical Biofluidic Group (OBIG) operates at the nexus of advanced imaging and biological physics, maintaining strong industry partnerships via Ability Optics Pty Ltd to translate fundamental research into real-world medical technologies.
