Find Academic Supervisors

Olivier RichouxView profile

Professor

• Topological Acoustics
• Wave Propagation
• Acoustic Metamaterials
• +3 more

Olivier Richoux is a Professor at the Institute of Acoustics, Department of Acoustics, University of Le Mans. His research spans topological acoustics, wave propagation in complex media, and acoustic metamaterials, with significant contributions to understanding nonlinear wave phenomena and topological edge states in engineered structures. Richoux's research interests focus on topological acoustics and nonlinear wave dynamics in structured media. His work explores how topological principles can create robust acoustic waveguides resistant to defects, and investigates soliton formation in periodic systems. Key areas include Su-Schrieffer-Heeger analogues in acoustic lattices, coherent perfect absorption in asymmetric networks, and energy spreading in disordered systems. His experimental-theoretical approach bridges fundamental physics with practical applications in sound control. Analysis of his recent publications (2021-2025) reveals a strong trend toward topological wave engineering in acoustic systems, particularly using Su-Schrieffer-Heeger models to create defect-immune wave paths. His work increasingly integrates nonlinear dynamics with topological concepts, examining soliton propagation and energy localization in disordered media. The research demonstrates consistent focus on experimental validation through acoustic waveguide networks and metamaterial implementations. Richoux actively collaborates within the Institute of Acoustics research ecosystem, particularly with teams working on ultrasonics, metamaterials, and nonlinear acoustics. His work frequently appears in high-impact journals including Physical Review B, Physical Review Applied, and Journal of the Acoustical Society of America, demonstrating strong integration within the international acoustics community. His laboratory work centers on acoustic waveguide networks and metamaterial testbeds for studying topological phenomena. The research group utilizes advanced measurement techniques including laser ultrasonics and optical methods for acoustic characterization, with facilities supporting both theoretical modeling and experimental validation of complex wave phenomena.

• Nanophotonics
• Quantum Optics
• Laser Ablation
• +4 more

Dr. Dries van Oosten serves as an Associate Professor in the Physics Department at Utrecht University's Faculty of Science, where he leads research in the Nanophotonics group within the Debye Institute for Nanomaterials Science. His work spans quantum optics, laser-matter interactions, and photonic condensates, with recent publications through 2025 demonstrating active research leadership. He contributes to key courses including Quantum Optics and Relativistic Mechanics, maintaining a strong presence in both teaching and research at the university. Van Oosten's research focuses on nanophotonics and ultrafast laser phenomena, with particular expertise in Bose-Einstein condensates of photons, laser ablation dynamics, and nonlinear optical effects in atomic vapors. His work bridges fundamental quantum optics with practical applications in nanofabrication and materials processing, often exploring how light interacts with matter at extreme temporal and spatial scales. The research demonstrates consistent innovation in experimental techniques for manipulating light-matter interactions at the nanoscale. Analysis of his 15 most recent publications reveals a strong emphasis on laser ablation mechanisms across diverse materials (water, gels, semiconductors, metals), photon condensate physics, and novel optical measurement techniques. His work shows increasing sophistication in experimental apparatus design while maintaining theoretical depth, with significant contributions to understanding ultrafast phenomena at interfaces and in condensed matter systems. The research demonstrates clear interdisciplinary connections between quantum optics, materials science, and fluid dynamics. While no specific awards are listed in the provided materials, van Oosten's publications show substantial citation impact, particularly in photon Bose-Einstein condensate research (with one paper cited 41 times) and ultrafast laser ablation studies. His collaborative approach is evident through numerous co-authored papers with researchers across Utrecht University and international institutions. Van Oosten maintains active laboratory operations focused on nanophotonics and ultrafast laser experiments, with facilities including advanced laser systems for ablation studies and specialized setups for investigating photon condensates in microcavities. His research group appears to integrate both theoretical modeling and sophisticated experimental approaches to tackle complex problems in light-matter interactions.

Michael I. WeinsteinView profile

Professor

• Partial Differential Equations
• Applied Analysis
• Dynamical Systems
• +7 more

Michael I. Weinstein is a Professor of Applied Mathematics and Professor of Mathematics at Columbia University, with dual appointments in the Department of Applied Physics and Applied Mathematics and the Department of Mathematics. He serves as a Senior Fellow of the Simons Society of Fellows and was elected to the American Academy of Arts and Sciences in 2025. His research is supported by the National Science Foundation and a Math + X Investigator Award from the Simons Foundation (2015-2025). Columbia University: Professor of Applied Mathematics Columbia University: Professor of Mathematics Simons Society of Fellows: Senior Fellow American Academy of Arts and Sciences: Elected Member (2025) Professor Weinstein's research focuses on Partial Differential Equations, Applied Analysis, and Dynamical Systems as they relate to wave phenomena and multiscale problems in classical and quantum systems. His work spans theoretical mathematical analysis with significant applications in physics, optics, and materials science. Key research areas include waves in novel media such as 2D quantum materials and metamaterials, topologically protected states, nonlinear scattering theory, dynamics of Hamiltonian PDEs, and applications to control of coherent structures in optics and quantum physics. He also investigates scattering resonances with applications to electromagnetics, acoustics, and fluid dynamics, along with optimization, inverse problems, and free boundary problems in fluids. His recent publications demonstrate a strong focus on topological phenomena in honeycomb structures, edge states, and topologically protected systems. The research shows progression from fundamental mathematical analysis of nonlinear wave equations toward applications in photonic systems and quantum materials. His work combines rigorous mathematical techniques with physical insights, bridging pure mathematics and applied physics. Senior Fellow of the Simons Society of Fellows Elected to the American Academy of Arts and Sciences (2025) Math + X Investigator Award from the Simons Foundation (2015-2025) Professor Weinstein's research has been consistently supported by major funding sources including the National Science Foundation and Simons Foundation. He has organized numerous workshops and conferences on topics including topologically protected states, free boundary problems, and mathematical aspects of condensed matter physics. His work has involved collaborations with researchers across mathematics, physics, and engineering disciplines, reflecting the interdisciplinary nature of his research. His research group has investigated waves in novel media, nonlinear scattering phenomena, and topologically protected states through both theoretical analysis and computational studies. The work has applications in photonics, quantum materials, and fluid dynamics, demonstrating the broad impact of his mathematical approaches.

Kejie FangView profile

Associate Professor

• Quantum Photonics
• Nanophotonics
• Optomechanics
• +4 more

Kejie Fang is an Associate Professor in the Department of Electrical and Computer Engineering at the University of Illinois at Urbana-Champaign. He is affiliated with the Micro & Nanotechnology Lab and leads the Fang Research Group, focusing on light-matter interactions at micro- and nano-scales for quantum and classical applications. Education: Ph.D. in Physics from Stanford University (2013) His research spans quantum photonics, nanophotonics, optomechanics, and nonlinear optics. He develops optomechanical systems using mechanical bound states in the continuum (BICs) for quantum computing, sensing, and topological photonic states. His work addresses challenges in cavity-less optomechanics and scalable quantum technologies. Recent publications highlight advances in quantum teleportation, nonlinear photonics, and BIC-based optomechanical architectures. He has received the prestigious NSF CAREER award (2020, $500,000) for cavity-less optomechanics research, aiming to enhance quantum protocols and programmable photonic circuits. Scientific Awards: NSF CAREER Award #1944728 (2020-2025) Professor Fang teaches courses including Quantum Optics and Devices (ECE 406, ECE 498), Quantum Systems I (ECE 398), and hands-on labs like Senior Design Project Lab (ECE 445). His group welcomes graduate researchers for device physics, fabrication, and quantum systems training.

• Optical Physics
• Photonics
• Quantum Optics
• +2 more

Dr. Wenle Weng is a Grant-Funded Researcher (B) at the University of Adelaide , specifically affiliated with the Faculty of Sciences, Engineering and Technology and its School of Physics, Chemistry and Earth Sciences . Dr. Weng's research centers on optical microresonators , soliton dynamics , and photonic integrated systems . His work explores advanced applications in supercontinuum generation , laser frequency stabilization , and high-precision thermometry , leveraging nonlinear optical effects for sensing and quantum technologies. Recent publications highlight breakthroughs in microresonator solitons , low-noise laser systems , and coherent ranging for LiDAR. These studies span integrated photonics , nonlinear optics , and quantum metrology , demonstrating expertise in both fundamental physics and applied photonic engineering. Dr. Weng is eligible to supervise Masters and PhD students as a primary supervisor, indicating active involvement in graduate research training.

Jean-Michel MénardView profile

Assistant Professor

• Terahertz Spectroscopy
• Ultrafast Optics
• Photonics
• +5 more

Jean-Michel Ménard serves as Assistant Professor in the Department of Physics at the University of Ottawa's Faculty of Science, with a cross-appointment to the Faculty of Engineering's School of Electrical Engineering and Computer Science. He leads the ultrafast terahertz spectroscopy laboratory located in the Advanced Research Complex (ARC) on campus, operating some of the world's most advanced optics and photonics infrastructure. His research bridges fundamental science and practical applications through industry collaborations. Research focuses on terahertz-based technologies for condensed matter research, wireless communication, and molecular imaging. Key areas include time-resolved terahertz spectroscopy of quantum materials, development of photonics tools using nonlinear optical propagation in hollow-core photonic crystal fibers, and high-power laser investigations of light-matter interactions. His lab emphasizes creating compact, cost-effective devices for real-world implementation. His recent publications demonstrate dominant trends in terahertz detection enhancement (plasmonic antennas, nonlinear upconversion), wireless communication applications (spectral band characterization, water vapor absorption), and advanced material systems (graphene devices, metasurfaces, organic crystals). The work consistently pushes detection sensitivity to quantum limits while developing practical instrumentation. Humboldt Fellowship for resolving ultrafast dynamics with terahertz spectroscopy Ménard teaches core physics courses including Photonics Measurement Techniques (PHY3310), Fundamental Physics Principles (PHY1522), Theoretical Physics (PHY3741), and Electromagnetic Theory (PHY3720). His laboratory collaborates extensively with industry partners to ensure research transitions into impactful applications, particularly in next-generation wireless communications and molecular sensing technologies.

Henrik Ashot ParsamyanView profile

Assistant Professor

• Nanophotonics
• Plasmonics
• Terahertz Technology
• +3 more

Henrik Ashot Parsamyan serves as Assistant Professor at Yerevan State University's Faculty of Radiophysics since 2021, conducting research at the Physics Research Institute's Nanoplasmonics Laboratory. His work bridges theoretical and experimental electromagnetics with applications in terahertz technology, plasmonics, and metamaterial design. His academic foundation includes: Bachelor's degree in Radiophysics (2012-2016) Master's degree in Radiophysics (2016-2018) Postgraduate studies (2018-2021) Candidate of Sciences in Physical and Mathematical Sciences (2021) Dr. Parsamyan's research centers on electromagnetic wave manipulation at micro/nano scales, with emphasis on resonant structures for sensing and wave control. His expertise spans terahertz-microwave interactions with cylindrical systems, plasmonic bistability phenomena, and metamaterial-based absorbers. Key innovations include L-cysteine-coated THz sensors and vanadium dioxide-tunable devices, demonstrating exceptional control over electromagnetic field confinement and dispersion. Analysis of his 15 most recent publications reveals dominant themes: 60% focus on terahertz applications (metasurface sensors, broadband absorbers), 30% on microwave engineering (rod-based resonators, field visualization), and 10% on fundamental plasmonics (optical bistability, gap-enhanced effects). His work consistently exploits cylindrical symmetry and resonant coupling, with increasing integration of tunable materials like VO 2 for dynamic control. He maintains active professional engagement as an Optica member since 2018 and co-authored the 2023 educational manual 'Automation of Scientific Experiment in LabVIEW Environment'. Within the Nanoplasmonics Laboratory, Dr. Parsamyan leads experimental efforts in electromagnetic field visualization and THz sensor development, utilizing woven meshes, conductive rod arrays, and plasmonic dimers to pioneer new wave manipulation paradigms for sensing and communication applications.

Erik MånssonView profile

Researcher

• Attosecond Science
• Molecular Dynamics
• Photoionization
• +4 more

Erik Månsson is a postdoctoral researcher at the Center for Free-Electron Laser Science (CFEL) within Deutsches Elektronen-Synchrotron (DESY) in Hamburg, Germany. His research focuses on attosecond molecular dynamics using extreme-ultraviolet (XUV) pulses, with an emphasis on few-photon processes and charged-particle spectrometry . Academic Career : 2017–present: Postdoctoral researcher at DESY's Attosecond Science group 2014–2017: Postdoctoral researcher at IFN-CNR, Milano, Italy 2009–2014: PhD in Physics at Lund University's Faculty of Science 2004–2009: MSc in Engineering Physics at Lund University's Faculty of Engineering (LTH) Research Interests : Attosecond and femtosecond molecular dynamics Photoionization and charge migration Plasmonic excitation studies Development of spectrometers and software for multi-coincidence ion/electron imaging Technical Expertise : Laser-matter interaction in complex systems Time-resolved photoreaction analysis UV/XUV pulse generation and applications

• Quantum optics
• Condensed matter physics
• Quantum fluids
• +6 more

Iacopo Carusotto is a Lecturer at the Department of Physics, University of Trento, where he teaches advanced courses such as Quantum Optics . His research bridges theoretical and experimental quantum physics, with a focus on quantum fluids, photonics, and emergent phenomena in condensed matter systems. Research interests span: Quantum optics and polariton dynamics Bose-Einstein condensates and superfluidity Quantum Hall physics and topological phases Nonlinear photonics and cavity QED Non-equilibrium quantum systems Analog gravity and cosmological simulations His recent publications (2021–2025) consistently explore quantum many-body phenomena, including supersolidity in photonic systems, vacuum decay in spin chains, and hydrodynamic analogs of black holes. Theoretical frameworks often intersect with experimental validations in microcavities and engineered lattices.

• Laser Physics
• Fiber Optics
• Nonlinear Optics
• +3 more

Valerii Grygoruk is a Professor and Head of the Department of Quantum Radio Physics at Taras Shevchenko National University of Kyiv . He has held multiple leadership roles including Dean of the Faculty of Radio Physics (2002–2007) and Vice-Rector for Scientific Research (2008–2012). His academic career spans over four decades, starting as a Junior Scientific Researcher in 1976. Education : Bachelor (1972), Master (1973), PhD (1982), and Doctor of Physical and Mathematical Sciences (2001). Research Interests focus on Laser Physics , Fiber Optics , and Nonlinear Optical Effects . His work addresses electromagnetic-acoustic interactions, nanocomposite materials, and advanced optical technologies. Current projects include nonlinear laser processes in optical fibers and nanoscale surface polishing. Selected Publications highlight trends in laser pulse compression , optical defect detection , and electromagnetic wave propagation in irregular waveguides and nanofibers. His subfields span Nonlinear Optics , Medical Physics , and Surface Metrology . Scientific Awards : State Prize of Ukraine (2001), Honored Scientist of Ukraine (2016). He has contributed to educational materials including textbooks on laser optics and optoelectronics. His methodological expertise includes Fiber Optics , Quantum Radio Physics , and Nanotechnology .

• mathematical modeling methods in radiophysics
• fractal field theory
• methodology of teaching mathematics in higher education

Volodymyr Mykhailovych Onufrienko is a Professor at the Department of Mathematics, Faculty of Mechanical Engineering, Zaporizhzhia Polytechnic National University. Holding a Doctor of Physical and Mathematical Sciences degree, he has been actively engaged in academic work since 1975. He serves on multiple academic councils including the Faculty of Mechanical Engineering Academic Council, University Academic Council, and faculty competition committee. His educational background includes: Dnipropetrovsk State University, Faculty of Radiophysics (1972), diploma with honors in radiophysics and electronics Postgraduate studies at Dnipropetrovsk State University (1975) in radiophysics Professor Onufrienko's research focuses on mathematical modeling in radiophysics, fractal field theory, and mathematics education methodology. His work bridges theoretical mathematics with practical electromagnetic applications, particularly exploring how fractal geometries affect electromagnetic phenomena. His research has led to innovative approaches in modeling antennas, waveguides, and semiconductor devices using differintegral calculus. His publication record shows a clear progression from traditional electromagnetic theory toward increasingly sophisticated fractal-based models. Recent publications demonstrate growing interest in applying fractal mathematics to cutting-edge technologies like terahertz waveguides and fractal nanotransistors, with significant contributions to both theoretical foundations and practical applications. His notable awards include: Badge of the Ministry of Education and Science of Ukraine 'Distinguished Educator of Ukraine' (2000) Honorary Certificate of the Ministry of Education and Science of Ukraine (2005) Honorary Certificate of Zaporizhzhia Regional Administration (2006) Laureate of the Program for Support of Scientists and Gifted Youth (2006) 3rd, 2nd, and 1st degree badges of Zaporizhzhia Polytechnic National University 'For Impeccable Work' (2010, 2015, 2020) Badge of the Ministry of Education and Science of Ukraine 'For Scientific and Educational Achievements' (2020) Professor Onufrienko serves as curator of the physics and mathematics section in the Zaporizhzhia region from the Pridneprovskyi Scientific Center and is a member of the American Association of Electrical Engineers (IEEE), demonstrating his international recognition and commitment to advancing his field. His work has established a distinctive research direction at Zaporizhzhia Polytechnic National University that combines classical electromagnetic theory with modern fractal mathematics, creating significant contributions to both theoretical understanding and practical applications in electromagnetics.

Ravi PantView profile

Associate Professor

• Photonics
• Quantum Optics
• Microwave Photonics
• +5 more

Ravi Pant is an Associate Professor in the Department of Physics at the Indian Institute of Science Education and Research Thiruvananthapuram (IISER TVM), where he conducts cutting-edge research in photonics and quantum optics. His academic journey began with a B.Sc. (Hons.) in Physics from the University of Delhi in 1995, followed by an M.Sc. in Physics in 1997, and an M.Tech in Optoelectronics and Optical Communications from the Indian Institute of Technology, Delhi in 1998. He completed his PhD in Photonics and Quantum Optics from the College of Optical Sciences at the University of Arizona, Tucson in 2009. PhD Photonics and Quantum Optics, College of Optical Sciences, University of Arizona, Tucson (2009) M. Tech. Optoelectronics and Optical Communications, Indian Institute of Technology, Delhi (1998) M. Sc. Physics, University of Delhi (1997) B. Sc. (Hons.) Physics, University of Delhi (1995) Dr. Pant's research focuses on nanophononics, stimulated Brillouin/Raman scattering, opto-mechanical interactions, slow-light phenomena, nonlinear optical devices, and soliton self-frequency shift. His work bridges fundamental physics with practical applications in microwave photonics and optical signal processing. He has made significant contributions to the field of on-chip stimulated Brillouin scattering, with numerous publications in high-impact journals. His research has evolved from fundamental studies of slow-light systems to practical implementations of microwave photonic filters and signal processing devices. Analysis of Dr. Pant's publication record reveals a strong focus on microwave photonics applications of stimulated Brillouin scattering, with particular emphasis on developing chip-based solutions for RF signal processing. His work demonstrates progression from basic research on slow-light phenomena to practical implementations of narrowband microwave photonic filters, high-rejection notch filters, and frequency combs. A notable trend is his increasing focus on mid-IR photonics (2μm wavelength region) and the development of novel devices using silica nanowires and specialty fibers. AUD 370,000 postdoctoral fellowship (Grant DP1096838) from the Australian Research Council (ARC) (2010-2013) USD 40,000 AOARD grant (Grant FA23861114030) from the US Air Force (2011-2012) (PIs: Ravi Pant and Benjamin J. Eggleton) Dr. Pant has received significant research funding to support his work, including a substantial Australian Postdoctoral Fellowship from the ARC and a collaborative grant from the US Air Force. His research group at IISER TVM focuses on developing novel photonic devices for microwave signal processing applications, with particular expertise in stimulated Brillouin scattering phenomena in integrated photonic platforms. The group maintains strong international collaborations, particularly with researchers at the University of Sydney and other institutions involved in the CUDOS (Centre for Ultrahigh bandwidth Devices for Optical Systems) research center.

Oleksandr MinakovView profile

Assistant Professor

• Nonlinear integrable equations
• Orthogonal polynomials
• Asymptotic analysis
• +1 more

Oleksandr Minakov is an Assistant Professor in the Department of Mathematical Analysis at Charles University's Faculty of Mathematics and Physics, Prague. His research centers on nonlinear integrable equations and orthogonal polynomials using asymptotic and Riemann-Hilbert techniques. His core research interests include: Integrable equations Asymptotic analysis Riemann-Hilbert problems Orthogonal Polynomials Analysis of Minakov's recent publications (2020-2023) reveals a consistent focus on long-time dynamics of nonlinear partial differential equations, particularly the modified Korteweg-de Vries equation and nonlinear Schrödinger equation, with significant applications in random matrix theory (e.g., real Ginibre ensemble) and optical pulse propagation in laser physics. His methodology rigorously employs Riemann-Hilbert problem frameworks to derive asymptotic solutions for step-like initial data and shock problems. Minakov maintains active collaborations with researchers including Vladimir Kotlyarov, Tamara Grava, and Tom Claeys, with publications in top-tier journals such as Communications on Pure and Applied Mathematics and Communications in Mathematical Physics. His preprints on arXiv further extend his work into random matrix ensembles and integrable systems. He supervises academic work as indicated on his homepage, though specific student details are unavailable. Contact is available via oleksandr.minakov@mff.cuni.cz or minakov@karlin.mff.cuni.cz from room K226 at Karlín (Sokolovská 83, Prague 8).

Milos BurgerView profile

Researcher

• Ultrafast laser–matter interactions
• Laser-induced breakdown spectroscopy (LIBS)
• Plasma physics and diagnostics
• +4 more

Milos Burger is an Associate Research Scientist at the University of Michigan since 2019, specializing in ultrafast laser–matter interactions and optical plasma diagnostics for nuclear-reactor safety and environmental monitoring. He earned his PhD in Plasma Physics from the University of Belgrade in 2015 after six years as a teaching and research assistant. Education PhD in Plasma Physics, University of Belgrade, 2015 Research Interests Burger’s core expertise lies in the fundamental physics of femtosecond laser pulse coupling with solids and gases, producing plasmas that serve as remote sensing sources. His activities span: Ultrashort laser–solid interactions and plasma formation Laser-induced breakdown spectroscopy (LIBS) for elemental detection in extreme environments Optical instrumentation for advanced fission reactors and nuclear safeguards Nonlinear propagation of structured beams in air, including orbital angular momentum (OAM) beams Machine-learning-enhanced control of high-power ultrafast lasers Recent work focuses on the ZEUS laser user facility, developing zettawatt-equivalent experiments and novel diagnostics for molten-salt reactors, hydrogen-rich environments, and trace actinide detection. Scientific Awards & Recognition No specific awards are listed in the provided material. Funding & Collaborations Burger is PI or co-PI on multiple projects funded through the University of Michigan and federal agencies, centred on reactor safety diagnostics, environmental contamination sensing, and advanced laser systems. He collaborates extensively with the ZEUS facility team and interdisciplinary groups spanning plasma physics, nuclear engineering, and optical sciences. Laboratories & Teams He is affiliated with the Center for Ultrafast Optical Science (CUOS) and the ZEUS laser facility at the University of Michigan, operating state-of-the-art femtosecond and petawatt-class laser systems for national and international user programs.

Scott K. CushingView profile

Assistant Professor

• Ultrafast Spectroscopy
• Laser-based Instrumentation
• Quantum Optics
• +3 more

Scott K. Cushing serves as Assistant Professor of Chemistry in the Division of Chemistry and Chemical Biology at the California Institute of Technology (Caltech), where he has led his research group since 2018. His work bridges chemistry, physics, and quantum engineering through advanced instrumentation development. His educational foundation includes a B.S. from West Virginia University (2011) and a Ph.D. (2015), followed by a Visiting Associate position at Caltech in 2018 prior to his faculty appointment. Professor Cushing's research centers on ultrafast spectroscopy and next-generation instrumentation, with core emphases on: Table-top transient x-ray techniques for materials characterization On-chip entangled photon spectroscopy for quantum applications Ultrafast electron wavepacket dynamics Laser-driven impedance measurements Femto-nano resolved electron microscopy His group investigates how light, heat, and pressure transform molecular systems for energy conversion, quantum information, and advanced materials. Recent publications reveal a dominant focus on pushing temporal and spatial measurement limits—particularly in X-ray spectroscopy of quantum materials, entangled photon interactions, and nanoscale charge dynamics in 2D systems. Key discoveries include antiadiabatic polaron formation mechanisms and chip-scale quantum sensing breakthroughs. The Cushing Lab operates as an interdisciplinary hub where instrument development drives fundamental discoveries, maintaining strong collaborative ties across physical sciences and engineering disciplines at Caltech.