Find Academic Supervisors

• Optical Wireless Communications
• RF Wireless Communication Systems
• Modeling Techniques
• +4 more

Dr. Pranav Sharda is a Postdoctoral Research Fellow at the Department of Engineering Science, University of Oxford. He holds a PhD from IIT Delhi and an M.Tech. (Gold Medalist) from Guru Nanak Dev University. His affiliations include the Hub of All-Spectrum Connectivity (HASC), UK, and he is a Fellow of the Optical Society of India (OSI). Dr. Sharda specializes in optical wireless communications, vehicular networks, and modeling techniques for communication systems. Education: PhD (IIT Delhi), M.Tech. (Guru Nanak Dev University) Affiliations: University of Oxford, HASC, OSI Reviewer Roles: IEEE Conferences/Journals (GLOBECOM, WCNC, ISIT, etc.) His research focuses on indoor/outdoor optical wireless systems, RF communications, MIMO systems, and next-generation intelligent transportation systems. Key areas include FSO systems, vehicular VLC, and diversity-multiplexing tradeoffs in challenging environments like atmospheric turbulence and mobility. His work addresses practical constraints such as dirty headlights, channel misalignment, and quantized feedback mechanisms. Recent articles highlight advancements in IRS-assisted UAV FSO systems, vehicular VLC propagation modeling, and optimization of LTE spatial multiplexing. His contributions emphasize real-world applicability through rigorous modeling and performance analysis. Awards: Gold Medal (Guru Nanak Dev University), Top 3% UGC-NET Dr. Sharda collaborates on grants related to all-spectrum connectivity and has no listed advisees. His affiliations with HASC suggest involvement in interdisciplinary projects bridging optical and wireless domains. Research extends to labs focused on next-gen connectivity technologies, with future directions in intelligent transportation systems and robust vehicular communication under environmental challenges.

Carlos MartinisView profile

Research Professor

• Ionospheric Physics
• Space Physics
• Thermosphere/Ionosphere Plasma Irregularities
• +3 more

Carlos Martinis is a Research Professor of Astronomy at Boston University's College of Arts and Sciences. He holds academic affiliations with the Departments of Astronomy, Mechanical Engineering, and Electrical and Computer Engineering. His educational background includes a Ph.D. (2006) and M.A. (2001) in Astronomy from Boston University, and advanced degrees in Physics from Universidad Nacional de Tucumán, Argentina (Licenciado, 1996; Bachillerato, 1994). Professor Martinis specializes in ionospheric physics, focusing on low and midlatitude ionospheric processes using all-sky optical imagers, satellite data, and ground-based GPS/radar systems. His research investigates equatorial Spread-F, plasma irregularities, and their impacts on radio signal propagation. Key areas include the climatology of ionospheric processes, electrodynamical coupling between regions, and inter-hemispheric studies influenced by Earth's magnetic field. Recent work leverages the GOLD mission for nighttime equatorial ionization anomaly (EIA) studies, revealing longitudinal and seasonal variations. Collaborations involve citizen scientists for geomagnetic storm observations and CubeSat initiatives like CuPID to study Sun-Earth boundaries. Instrumentation highlights include in-house-built optical imagers and Fabry-Perot interferometers. His research emphasizes multi-instrument synergy, combining optical, radar, and satellite data to understand MSTIDs, gravity waves, and plasma dynamics. Notable contributions address plasma bubble behavior, thermospheric neutral winds, and the effects of geomagnetic storms on ionospheric structures.

• Materials Science
• Optics
• Physics
• +3 more

Per Michael Johansen serves as Rector of Aalborg University (AAU), Denmark's leadership position overseeing all academic and administrative functions. His career spans research leadership at Risø National Laboratory, Dean of University of Southern Denmark (2007-2014), and Managing Director of Svendborg International Maritime Academy (2005-2006). His academic credentials include: DSc in Physics, University of Copenhagen (2001) PhD in Optics, Forskningscenter Risø / Aalborg Universitet (1986-1989) MSc in Mechanical Engineering (1981-1986) Johansen's research centers on Materials Science with expertise in crystalline structures, optical materials, and electromagnetic properties. His fingerprint analysis shows 100% specialization in Material Science, particularly glass transition temperatures (66%), anisotropy (55%), and space charge phenomena (51%). Recent work bridges physics and medicine through intra-body permittivity modeling for wireless medical devices. His publication trends reveal dual trajectories: technical research in biomedical sensors since 2014 and policy commentary on higher education's societal role. The 2021-2017 works emphasize university-industry collaboration and institutional stability in democracies, while 2015-2014 studies focus on electromagnetic modeling for capsule endoscopy. He holds these national honors: Ridder af 1. grad af Dannebrogordenen (2020) Ridder af Dannebrogordenen (2011) Johansen actively shapes Danish academia through board leadership including Tall Ship Aalborg Fonden (Chairperson), FORCE Technology (Vice Chairperson), and ATV presidency appointment (June 2025). His mentorship extends through AAU's problem-based learning framework and industry partnerships. At Risø National Laboratory, he directed the Optical Materials research programme (1996-2000), developing experimental methodologies for chromophore analysis and permittivity measurement that underpin his later biomedical applications.

• Nonlinear Optics
• Fiber Optics
• Supercontinuum Generation
• +3 more

Mikko Närhi is a Researcher at the Faculty of Engineering and Natural Sciences, specializing in nonlinear optics, fiber optics, and ultrafast laser dynamics. His work focuses on optical fiber fabrication, modulation instability, supercontinuum generation, and rogue wave phenomena. He has contributed to advancements in coherent beam combining, reference-free dual-comb spectroscopy, and real-time measurement techniques for ultrafast processes. Education: Master of Science (Technology) in Science and Engineering (2014), and a Lower-Degree Level Tertiary Education in Technology (2013). Research Interests: Mikko's research explores the intersection of nonlinear optics and fiber-based technologies, including the development of novel optical fibers doped with nanoparticles, analysis of extreme events in optical systems using machine learning, and the design of high-power laser systems through coherent beam combining. His work emphasizes practical applications such as ultrafast pulse generation and spectroscopic tools for environmental and biomedical diagnostics. Articles highlight his contributions to fiber laser dynamics, real-time measurement techniques, and machine learning-driven analysis of nonlinear phenomena. Key areas include Er 3+ -doped tellurite fibers, power scaling of optical vortices, and the optimization of Mamyshev regenerators for ultrafast pulse shaping. Grants: He held an outgoing grant from 15.09.2015 to 15.01.2016. His work has been supported by collaborative projects with institutions globally, focusing on fiber optics and laser technologies. Labs/Teams: His research involves collaborations on advanced optical systems, with contributions to cutting-edge projects in nonlinear fiber optics and high-power laser development.

• Fiber Lasers
• Optical Amplifiers
• High-Power Lasers
• +3 more

Regina Gumenyuk is a Senior Research Fellow in the field of Physics, specializing in fiber laser technology and high-power optical systems. Her work contributes to the UN Sustainable Development Goals related to education and innovation. She holds a Doctor of Science (Technology) from Science and Engineering (2014) and a Master of Science (Technology) from Lappeenranta University of Technology (2008). Her research interests include fiber lasers, optical amplifiers, ultrafast laser systems, and their applications in biomedical photonics. Key areas of focus are high-power MOPA systems, tapered double-clad fibers, and coherent beam combining techniques. She also explores the integration of machine learning for optimizing fiber laser performance. Dr. Gumenyuk has supervised the master's thesis of Andrei Fedotov on upconversion nanoparticles for visible light sources (2017). She has received grants and awards, though specific details are not explicitly listed. Her contributions include advancements in tellurite fiber development, Er/Yb-doped fiber systems, and label-free cancer detection techniques in digestive and urinary systems. Her work has led to innovations in high-power laser systems, including MW-level amplifiers and tunable wavelength systems. She actively contributes to peer review in journals like Optics Letters and Applied Optics , and her research spans collaborations in material science and biomedical applications.

Ronald L WalsworthView profile

Professor

• Quantum Sensing
• Precision Measurement Tools
• Nuclear Magnetic Resonance (NMR)/MRI
• +3 more

Ronald L Walsworth is a Professor of Physics and Electrical and Computer Engineering at the University of Maryland (UMD), holding the Minta Martin endowed professorship. He is the Founding Director of UMD's Quantum Technology Center (QTC), which focuses on advancing quantum science for translational applications and workforce education. His research develops precision measurement tools and quantum sensors applied to physical and life sciences, including quantum diamond magnetometry, NMR/MRI, and bioimaging. Education details are not explicitly stated in the provided texts. His work combines experimental and theoretical approaches, leveraging quantum defects in diamond and boron nitride for ultra-sensitive measurements. Notable contributions include quantum diamond microscopes, all-optical magnetometers, and applications in astrophysics, biomedical imaging, and dark matter detection. Recent research themes emphasize solid-state spin ensembles for high-resolution magnetic spectroscopy, machine learning for data analysis, and interdisciplinary collaborations. He advises graduate students like Andrew Beling (2025 Boron Nitride Workshop presenter) and has pioneered sensor systems with industrial and academic partners. Grants and collaborations include NASA-funded quantum sensing assessments and DOE initiatives. Labs/Teams: Director of Quantum Technology Center (QTC), leading teams in quantum microscopy, sensor development, and quantum workforce training programs at UMD.

Kartik SrinivasanView profile

Adjunct Professor

• Quantum Information Science
• Nanophotonics
• Nonlinear Optics
• +5 more

Kartik Srinivasan is an Adjunct Professor affiliated with the Joint Quantum Institute (JQI) at the University of Maryland and the National Institute of Standards and Technology (NIST) in Gaithersburg, MD. His research focuses on nanophotonic devices for quantum information science, metrology, and sensing, leveraging advanced fabrication techniques to enhance light-matter interactions. Key research areas include quantum frequency conversion , single-photon generation , microresonator frequency combs , and cavity optomechanics . His work integrates computational modeling, nanofabrication, and optoelectronic characterization to develop controllable platforms for quantum technologies and next-generation sensors. Recent contributions include breakthroughs in all-optical noise quenching , parametric synchronization of soliton microcombs , and visible wavelength microcomb generation . His group’s innovations in nanoscale electro-optomechanical transducers and integrated quantum photonics are advancing applications like quantum communication and high-precision imaging. Though no awards are explicitly listed here, his research has attracted significant attention, including a notable method for improving single-photon collection via 3D-printed polymer waveguides. His labs at NIST and JQI collaborate closely on integrated photonics design, fabrication, and characterization tools.

Shengwang DuView profile

Research Professor

• Atomic, Molecular and Optical Physics
• Quantum Optics
• Quantum Computing
• +3 more

Shengwang Du is an Affiliate Research Professor of Physics at The University of Texas at Dallas (2025–2025) and currently holds a Professor position at Purdue University's Elmore Family School of Electrical and Computer Engineering and Department of Physics and Astronomy (2025–Present). He previously served as a Professor at The Hong Kong University of Science and Technology (2017–2020) and held roles from 2008–2020 there, including Associate and Assistant Professor. His research focuses on AMO Physics, Quantum Optics, and Optical Imaging, with notable contributions to quantum networks, quantum computing, and super-resolution microscopy. He has been recognized as a Fellow of the American Physical Society (2019) and Optica (2019), and an Elected Member of the Hong Kong Young Academy of Sciences (2020). Education: PhD in Physics, University of Colorado Boulder (2005) MS in Electrical Engineering, University of Colorado Boulder (2002) MS in Physics, Peking University (1999) BS in Electrical Engineering, Nanjing University (1996) Minor in Computer Science, Nanjing University (1995) Research Interests: Atomic, Molecular & Optical Physics (Laser Cooling/Trapping) Quantum Optics (Quantum Information Science, Quantum Computing) Optical Imaging (Nanostructure and Bioimaging Techniques) His work bridges quantum systems with practical applications, such as all-optical neural networks and precision sensors using nitrogen-vacancy centers. Grants & Labs: Recipient of a $5M NSF grant (2023) for quantum information processing research Founder of the Du Group - Quantum Optics Lab at UT Dallas Developed LiTone, a 5D light-sheet microscopy technology for live-cell imaging

Mohamad HassounView profile

Professor

• Artificial neural systems
• Associative memories
• Machine learning
• +4 more

Mohamad Hassoun is a Professor in the Department of Electrical and Computer Engineering at Wayne State University, Detroit, MI. He received all his degrees (B.S., M.S., Ph.D.) in Electrical Engineering from Wayne State University in 1981, 1982, and 1986 respectively. Founded the Computation and Neural Networks Laboratory Served as Interim Chair (1994-1995) Co-Editor-in-Chief of Neural Processing Letters (since 1998) Research Interests: Dr. Hassoun specializes in artificial neural networks, focusing on associative memories, pattern recognition, and machine learning. His work applies neural networks to physiologic signal processing, optimization, and control systems. He has contributed to optical computing research and authored foundational texts like Associative Neural Memories (Oxford, 1993) and Fundamentals of Artificial Neural Networks (MIT Press, 1995). Scientific Awards: Recipient of the National Science Foundation Presidential Young Investigator Award (1990) President's Award for Excellence in Teaching at Wayne State University Academic Roles: Dr. Hassoun has served as Associate Editor for multiple technical journals and on program committees for international neural network conferences. He teaches courses including Deep Learning: Fundamentals and Applications , Linear Systems and Signals , and Mathematical Methods in Engineering .

• Theoretical Chemistry
• Physical Chemistry
• Computational Nanotechnology
• +4 more

Dr. Buimaga-Iarinca Luiza Tania is a Researcher (R3) at the National Institute for Research and Development of Isotopic and Molecular Technologies (INCDTIM) in Cluj-Napoca, Romania. She works in the Materials, Energy and Advanced Technologies department, leading the Quantum Engineering research team. Her expertise spans theoretical and computational approaches in materials science, quantum computing, and energy storage systems. PhD in Physics (2011), Master's in Biophysics (2005), and Bachelor's in Physics (2004) – all from Babeș-Bolyai University Her research focuses on quantum materials , 2D nanosystems , and computational design of advanced materials . She applies Density Functional Theory (DFT) and Quantum Monte Carlo simulations to study molecular electronics, superconducting qubits, and battery electrode optimization. Her recent projects include error-corrected quantum computing architectures and stability analysis of organic electrode materials. Current work trends emphasize quantum engineering applications in energy systems ( lead-acid batteries , Lithium-ion MOFs ), topological superconductivity in transition metal dichalcogenides, and computational design of antimicrobial peptides . She collaborates internationally with institutions like École Normale Supérieure de Lyon and Universität Innsbruck.

• Optogenetics
• Neural Circuit Analysis
• Hydrogel-Tissue Chemistry (CLARITY)
• +4 more

Karl Deisseroth is the D.H. Chen Professor of Bioengineering and Psychiatry and Behavioral Sciences at Stanford University, and an Investigator at the Howard Hughes Medical Institute. He holds dual appointments in the School of Medicine and School of Engineering. His research focuses on developing transformative neurotechnologies like optogenetics and CLARITY, pioneering causal systems neuroscience, and advancing understanding of psychiatric disorders such as depression and autism. He completed his A.B. at Harvard, and M.D. and Ph.D. at Stanford, followed by residency and postdoctoral training at Stanford. Deisseroth's lab has disseminated optogenetics and CLARITY to thousands of labs globally. His honors include the Japan Prize (2023), Lasker Award (2021), Kyoto Prize (2018), and membership in all three U.S. National Academies. He continues clinical practice in psychiatry, combining medications with neural stimulation therapies. Key research interests span optogenetic tools, 3D genome architecture in neurons, and neurobiological mechanisms of emotion and dissociation. He teaches courses on optogenetics and systems physiology, advising over 30 doctoral and postdoctoral researchers. His work bridges engineering, neuroscience, and psychiatry, with over 500 publications and numerous patents.

Torsten LehmannView profile

Associate Professor

• Solid-state circuits and systems
• CMOS circuits at cryogenic temperature
• Ultra low-power CMOS design
• +6 more

Associate Professor Torsten Lehmann is a faculty member in the School of Electrical Engineering and Telecommunications at the University of New South Wales (UNSW). He holds the position of Associate Professor in Microelectronics and maintains an active research program focused on advanced circuit design for biomedical applications and cryogenic systems. His work spans multiple disciplines at the intersection of electronics engineering, biomedical technology, and quantum computing interfaces. Dr. Lehmann's research interests encompass several cutting-edge areas of microelectronics: Solid-state circuits and systems CMOS circuits at cryogenic temperature Ultra low-power CMOS design Bio-medical microelectronics Cochlear implants and vision prostheses High-performance analogue circuits in deep sub-micron CMOS His recent publication record demonstrates a strong focus on neural interfaces and optrode technology, with significant contributions to the development of optical neural stimulation and recording systems. Over the past five years, his research has increasingly concentrated on optrode arrays, biopotential sensing, and charge-balanced stimulation techniques for neural applications. His work bridges the gap between traditional electronic circuit design and emerging biomedical applications, particularly in vision and hearing prostheses. A consistent theme throughout his publications is the development of specialized circuits for challenging environments, whether ultra-low temperatures for quantum computing or implantable medical devices requiring extreme power efficiency. Dr. Lehmann has made significant contributions to the field of microelectronics for biomedical applications, particularly in the development of circuits for vision prostheses and neural stimulation systems. His work on cryogenic circuits for quantum computing interfaces represents an important bridge between traditional electronics engineering and emerging quantum technologies. His research group appears to be actively involved in several collaborative projects related to neural engineering and biomedical implants, working with colleagues across UNSW and with clinical partners. The lab likely focuses on the design and testing of specialized integrated circuits for challenging applications where conventional electronics face significant limitations.

David VitaliView profile

Professor

• Quantum Optics
• Quantum Information Processing
• Decoherence Control
• +7 more

David Vitali is a Professor at the Department of Physics, University of Camerino, Italy, where he has been a faculty member since November 2001, following his role as an Assistant Professor from 1993 to 2001. He previously served as a Visiting Lecturer at the University of North Texas in 1992 and 1993. His research is centered on quantum optics, quantum information processing, decoherence control, optomechanical systems, and quantum communication. Laurea in Physics, University of Pisa PhD in Physics, Scuola Normale Superiore di Pisa David Vitali's research focuses on the theoretical and experimental aspects of quantum systems, particularly in the areas of quantum entanglement, cavity QED, quantum feedback, and noise control in quantum measurements. His work explores methods to preserve quantum coherence through feedback and dynamical decoupling, and he investigates implementations of quantum information processing using trapped electrons, cavity QED, and slow light media. He is particularly known for his contributions to macroscopic entanglement, quantum measurements, and two-way quantum communication. His recent publications from 2004 to 2007 reflect a strong trend in quantum optomechanics, entanglement generation, and quantum control. Key themes include optomechanical entanglement, quantum phase gates, stochastic control of coherence, and high-precision quantum measurements. These works demonstrate a consistent focus on continuous variable quantum information, cavity-based quantum systems, and the engineering of non-classical states of light and matter. David Vitali has coordinated major research initiatives, including the EU FET programs ACQUIRE and QUIPROCONE, and the national PRIN program on decoherence control. He has been actively involved in EU programs such as HCM, TMR, QUEST, CONQUEST, and STREP QUELE, as well as numerous national research projects. He is a principal investigator in the Quantum Optics Lab at the University of Camerino, where he leads a research group working on foundational and applied aspects of quantum technologies. The group collaborates internationally and contributes to advancing quantum communication and quantum computing platforms.

Lydia KisleyView profile

Associate Professor

• Experimental Biophysics
• Single-Molecule Spectroscopy
• Soft Condensed Matter Physics
• +13 more

Lydia Kisley is the Ambrose Swasey Associate Professor of Physics in the Department of Physics at Case Western Reserve University's College of Arts and Sciences. Her research integrates physics, chemistry, and engineering to study molecular interactions in complex materials using advanced optical microscopy techniques. She leads an interdisciplinary lab focused on single-molecule spectroscopy and the development of novel microscopies. Her educational background includes a B.S. from Wittenberg University (2010) and a Ph.D. from Rice University (2015). B.S., Wittenberg University (2010) Ph.D., Rice University (2015) Dr. Kisley’s research interests center on understanding molecular behavior at bio/soft/metal interfaces. She aims to bridge molecular-scale phenomena with macroscopic material performance, particularly in industrial and medical applications. Her lab develops new microscopy and analysis methods to track molecular adsorption, diffusion, conformational changes, and reactivity across space, time, and temperature. Key research areas include separations (especially chiral and rare earth element extraction), corrosion (real-time, in situ monitoring), and extracellular matrix dynamics (protein transport in biological environments). Her work emphasizes quantitative, molecular-level insights to replace trial-and-error approaches in material design. The recent publications highlight a strong trend in single-molecule imaging applied to materials challenges. Her work spans from fundamental biophysics to applied engineering, with a growing emphasis on sustainability and green technologies. Articles focus on fluorophore development for corrosion detection, super-resolution imaging of biological environments, computational analysis of diffusion, and transformative approaches to separation science. A unifying theme is the development of methods to extract meaningful data from noisy or complex systems. She has received notable scientific recognition: U.S. Department of Energy Early Career Research Program Award (2024), $875,000 grant for rare earth element microscopy research Dr. Kisley actively mentors students and researchers at all levels. She advises graduate and undergraduate students in interdisciplinary projects, with several undergraduates contributing to publications and awards. She has secured significant external funding, including the DOE Early Career grant, to support her lab’s research on sustainable separation technologies. Her collaborations span departments at CWRU and include researchers at Lawrence Livermore National Laboratory. She encourages student involvement in high-impact science related to energy and sustainability. The Kisley Lab maintains active research facilities, including a microscopy laboratory in Rockefeller Hall and a wet chemistry lab in AW Smith Hall. The team includes postdoctoral researchers, graduate students, and undergraduates working on projects in biophysics, materials science, and chemical engineering. The lab fosters a collaborative environment with regular group meetings and opportunities for hands-on training in advanced instrumentation.

• Telecommunications
• Wireless Communications
• Signal Processing
• +3 more

Nenad D. Milosevic serves as a Full Professor at the Department of Telecommunications, Faculty of Electronic Engineering, University of Niš, a position he attained in 2023 after earning all academic degrees at this institution. His educational background includes: PhD in Telecommunications (2007) Master's in Telecommunications (2000) Bachelor's in Telecommunications (1997) Research expertise spans Wireless Communications and Signal Processing , with specialized focus on spread spectrum systems, frequency hopping techniques, and free space optics. His work addresses critical challenges including interference rejection in DS-SS/QPSK systems, carrier frequency offset mitigation, and atmospheric turbulence effects in optical wireless channels. Analysis of his 20 impact-factor journal publications reveals consistent contributions to mobile-to-mobile fading channel modeling, 4G/5G networking architectures, and FSO system optimization. Recent work emphasizes practical solutions for real-world wireless communication constraints through advanced modulation and receiver design. He is currently engaged in one national research project advancing telecommunications technologies.