Find Academic Supervisors

• Microfluidics
• Biomedical Engineering
• Nanotechnology
• +4 more

Bernard Treves Brown is a Lecturer in the College of Engineering at the University of Manchester. His research focuses on developing new instrumentation for liquids, particularly in microfluidics, with an emphasis on novel fabrication methods such as precision milling, soft lithography, and laser cutting. His work spans applications in biomedical engineering, environmental science, and materials science, including projects on microfluidic filters for stem cells, ultrasonic filters for biofuel applications, and fiber-optic sensors. Education: Doctor of Philosophy (1995): Instrumentation for Miniaturized Flow Systems, UMIST/University of Manchester Bachelor of Arts (1990): Oxford University Research Interests: Dr. Brown’s current projects include arrays of fiber optic sensors for temperature and chemical sensing, microfluidic methods in burn treatment, and improving Time-of-Flight Secondary-Ion Mass Spectrometry. He collaborates on initiatives like the Manchester Bioelectronics Network, advancing interdisciplinary research in bioelectronics and medical devices. Grants & Projects: Co-PI for Chemical Engineering Education Innovation (ongoing) Co-Investigator in Manchester Bioelectronics Network (2018) Labs/Teams: Active in microfluidics and bioelectronics research groups, contributing to the development of novel devices for biomedical and environmental applications.

Shanhui FanView profile

Professor

• Nanophotonics
• Photonic Crystals
• Metamaterials
• +4 more

Shanhui Fan is the Joseph and Hon Mai Goodman Professor in the School of Engineering at Stanford University, holding joint appointments in Electrical Engineering and Applied Physics (by courtesy). He is a Senior Fellow at the Precourt Institute for Energy and former Director of the Edward L. Ginzton Laboratory (2014–2021). His research focuses on nanophotonics, including photonic crystals, metamaterials, and their applications in energy and information technologies. Education: PhD in Theoretical Condensed Matter Physics from MIT (1997), BS in Physics from University of Science and Technology of China (1992). Research Interests: Fan investigates fundamental nanophotonic structures and their applications. Key areas include radiative cooling systems, quantum optics with free electrons, and topological photonics. His work bridges theoretical and applied photonics, with contributions to energy-efficient materials and optical devices. Awards: Member of NAS (2025) and NAE (2024), R. W. Wood Prize (2022), Vannevar Bush Fellowship (2017), Fellowships from IEEE, APS, Optica, and SPIE. Advising & Grants: Advised numerous PhD students and postdocs. Active in grants related to energy technologies and photonics. Collaborates with companies like Skycool Systems and Flexcompute. Labs & Teams: Leads research at the Edward L. Ginzton Laboratory and collaborates on projects involving metamaterials, radiative cooling, and quantum optics.

• Plasma Physics
• Microwave Engineering
• Millimetre-wave Technology
• +7 more

Professor Kevin Ronald is a faculty member in the Department of Physics, Faculty of Science, at the University of Strathclyde. He is an active researcher in plasma physics and high-frequency electromagnetic systems, with ongoing projects and publications extending into 2025. His work is supported by major funders such as EPSRC and the UK Space Agency, and he plays leadership roles as Principal and Co-investigator on multiple research initiatives. His research interests span plasma physics , millimeter-wave and microwave technology , electron beam dynamics , and high-power electromagnetic sources . He specializes in the development of diagnostics for fusion devices like MAST-U, the design of high-efficiency surface wave sources in the 70–170 GHz range, and the generation of electron cyclotron emissions. His work has applications in fusion energy, space-based drilling (e.g., the DIGGER project), and defense technologies. The recent articles highlight a strong focus on turbulence diagnostics in tokamaks , THz and sub-THz radiation generation , and plasma interactions in complex materials . These studies employ advanced simulation techniques and experimental validation, often in collaboration with international teams. The work contributes to advancing both fundamental plasma science and practical engineering applications. European Physical Society Recipient (2012) Member, APS Division of Plasma Physics (2005) Member, IEEE (2004) Member, Institute of Physics, Chartered Physicist (1992) Kevin Ronald has supervised research students, as indicated by the 'Supervised Work (4)' entry in his profile. He is actively involved in grant-funded projects such as the DTP 2224 studentship and the DIGGER project, which aim to develop gigahertz-generated energy resources and train next-generation researchers in energy transfer technologies. His collaborations span institutions and disciplines, reflecting a strong network in plasma and microwave research. His research is conducted within the Physics Department at Strathclyde, contributing to the SUPA (Scottish Universities Physics Alliance) network. He is involved in major experimental and simulation-based projects, including work on modulated cusp electron guns, millimeter-wave undulators, and high-power surface wave sources. These efforts are part of a broader initiative to advance microwave and mm-wave technologies for applications in health, security, and space exploration.

Nooshin Mohammadi EstakhriView profile

Assistant Professor

• Quantum Computing
• Photonics
• Metasurfaces
• +5 more

Dr. Nooshin Mohammadi Estakhri is an Assistant Professor at Chapman University in the Fowler School of Engineering (Electrical Engineering and Computer Science) and Schmid College of Science & Technology (Physics). She holds a Ph.D. from the University of Michigan and prior degrees from the University of Tehran. Her research focuses on quantum computing, photonics, and metamaterials. Education B.S. and M.S. in Electrical Engineering, University of Tehran Ph.D. in Applied Physics, University of Michigan Research Interests Quantum dot spin qubit systems Resonator-mediated quantum interactions Metasurface engineering for radiative cooling Machine learning applications in optical trapping Coherent wave scattering in disordered media Spin-orbit coupling and quantum interference Key Article Trends Quantum information processing in modular architectures Machine learning for nanoparticle design Phase-change materials in photonic control Decoherence mechanisms in spin qubit systems Wave dynamics in metamaterials Entanglement protocols with virtual photons Grants National Science Foundation Grant No. 2137776 U.S. Army Research Office Grant No. W911NF-23-1-0115

Marko LindnerView profile

Professor

• Functional Analysis
• Numerical Analysis
• Operator Theory
• +8 more

Marko Lindner is a Professor at the Institute of Mathematics, Hamburg University of Technology (TUHH), where he holds the Chair of Applied Analysis. His research lies at the intersection of functional analysis and numerical analysis, particularly focusing on the spectral and Fredholm theory of infinite matrices and linear operators. He has led significant research projects funded by the European Union through Marie-Curie grants and has collaborated with institutions and industries including BAE Systems, UK Met Office, and Schlumberger Ltd. Hamburg University of Technology (TUHH), Institute of Mathematics Chair of Applied Analysis Email: lindner@tuhh.de Office: Room 3,094, Building E, Am Schwarzenberg-Campus 3, D-21073 Hamburg His research interests include operator theory, spectral theory, pseudospectra, finite section methods, discrete Schrödinger operators, and applications in mathematical physics and wave scattering. He investigates the stability and convergence of numerical approximation schemes for infinite-dimensional operators, with deep theoretical contributions to limit operator theory and collective compactness. The recent publications highlight a strong trend in spectral approximation of non-selfadjoint operators, particularly Schrödinger-type operators with periodic, aperiodic, and random potentials. His work combines rigorous functional analytic foundations with computational insights, often involving pseudospectra, condition number asymptotics, and subword-based approximation techniques. The integration of numerical methods with spectral theory is a consistent theme, especially in the context of wave propagation and scattering problems. Scientific awards include: Individual Marie-Curie Fellowship (EU, 2005–2007) Individual Marie-Curie Grant (EU, 2008–2011) Marko Lindner has supervised various research projects, particularly in the areas of wave scattering in unbounded domains and the spectral analysis of infinite matrices. His collaborations span applied mathematics, mathematical physics, and engineering, with funding from both public and private sectors. He is actively involved in the academic community, organizing events such as the Operator Theory Workshop and participating in SIAM & GAMM Chapter activities. He leads and contributes to research teams working on applied operator theory, with a focus on developing stable and efficient numerical methods for complex physical systems. His work bridges theoretical operator algebras and practical computational techniques.

Levi SmithView profile

Professor

• Terahertz Engineering
• Photonics
• Spectroscopy
• +3 more

Levi Smith is a Professor leading research in Terahertz (THz) Engineering, focusing on bridging millimeter-wave and photonic technologies to address challenges in the THz gap. His work emphasizes transmitter/receiver design using photoconductive switches, transmission mediums for short-distance applications, and spectroscopic sensing for chemical and environmental monitoring. Key collaborations include shared laboratory infrastructure with Prof. Gordon and Prof. Bornemann, featuring advanced equipment such as femtosecond lasers, optical spectrum analyzers, and an anechoic chamber. Research interests span THz spectroscopy for molecular fingerprinting, greenhouse gas emission quantification via novel laser-detection systems, and integrated terahertz biosensors for healthcare applications. Recent work highlights include on-chip glucose sensing using guided waves, spoof surface plasmon polariton filters for 6G communications, and metamaterial-based bandpass filters. His lab explores synergies between nanotechnology and high-frequency systems, with a focus on practical applications in environmental monitoring, medical diagnostics, and next-generation communication technologies.

Aseema MohantyView profile

Assistant Professor

• nanophotonics
• optical beam shaping
• neuroengineering
• +5 more

Aseema Mohanty is an Assistant Professor in the Department of Electrical and Computer Engineering at Tufts University, holding the Clare Boothe Luce Professorship. She earned her B.Sc. from MIT and Ph.D. from Cornell University, followed by postdoctoral research at Columbia University under Michal Lipson. Her research focuses on nanophotonics, optical beam shaping, and neuroengineering, with applications in quantum information systems, biomedical sensors, and chip-scale imaging. She leads the Mohanty Nanophotonics Lab, developing miniaturized optical circuits for neural interfaces, LiDAR, and quantum computing. Education: Bachelor of Science, Electrical Science & Engineering, MIT (2011) Ph.D., Electrical and Computer Engineering, Cornell University (2017) Research Interests: Chip-scale optical systems for neuroscience and quantum applications 3D optical beam shaping and sensing Biomedical optical interfaces and implantable devices Her work bridges nanophotonics and biomedicine, with recent breakthroughs including reconfigurable neural stimulation probes and chip-scale lasers spanning ultraviolet to near-infrared wavelengths. Over 30 peer-reviewed articles highlight her contributions to optical phased arrays, quantum photonics, and miniaturized imaging systems. Awards: Clare Boothe Luce Professorship (2020-present) Lab Activities: Mentoring 10+ students across ECE and Physics, advancing projects in quantum communication, biomedical optics, and LiDAR systems.

• Optical Communications
• Photonics
• Optical Sensors
• +4 more

Peter Van Daele is a Senior full professor at Ghent University, affiliated with the Faculty of Engineering and Architecture and the Department of Information Technology (EA05). His research is centered at the Centre for Microsystems Technology and the Internet Technology and Data Science Lab, where he leads significant work in optical communications, photonics, and flexible electronics. His research interests focus on optical sensors, polymer-based optical interconnections, and embedded photonic systems. He has pioneered techniques for embedding optical components in printed circuit boards and flexible substrates, enabling applications in artificial optical skins, biomedical sensing, and tactile sensor systems. His work bridges fundamental photonics research with practical engineering solutions for communications, sensing, and medical applications. Professor Van Daele's publication record spans over two decades with more than 470 publications, demonstrating consistent research activity through to 2022. His recent work shows a strategic shift toward network security and next-generation internet architecture while maintaining his core expertise in optical sensing systems. The evolution of his research demonstrates a progression from fundamental optical component design toward integrated systems with practical applications. He has led major European research initiatives including BONE (Building the future Optical Network in Europe) and has coordinated significant projects such as 'Embedding of optical and opto-electronic components in printed circuit boards' (2007-2012) and 'FAOS: Flexible Artificial Optical Skin' (2007-2010). His work has received funding from the Research Foundation - Flanders (FWO) and various regional and community funding bodies. Professor Van Daele maintains an active research profile with recent publications in 2021-2022 on optical communications and network security, indicating he continues to be a significant contributor to his field. His collaborative work spans multiple European institutions, demonstrating strong international research connections in the photonics and telecommunications domains.

• Antenna Design
• Wireless Communication
• Microwave Engineering
• +4 more

Kamil Yavuz Kapusuz serves as a Postdoctoral Researcher at Ghent University's Faculty of Engineering and Architecture within the Department of Information Technology (EA05) and as a Postdoctoral Assistant at IMEC. His research focuses on advanced antenna systems for next-generation wireless communication networks, with particular expertise in substrate-integrated waveguide technology and terahertz applications. Dr. Kapusuz's research interests center on antenna design for emerging communication technologies, specializing in substrate-integrated waveguide (SIW) systems, terahertz and millimeter-wave communications, and medical implantable antennas. His work bridges theoretical electromagnetic principles with practical implementation challenges in 5G/6G networks, satellite communications, and wireless medical devices. He has developed innovative approaches for camera-integrated antennas for wireless capsule endoscopy and metal-free continuous transverse stub arrays for sub-terahertz applications. Analysis of his recent publications reveals a strong focus on solving practical engineering challenges in high-frequency wireless systems. His work demonstrates consistent progression from foundational SIW research toward increasingly sophisticated applications in terahertz communications, medical devices, and smart surfaces. Key trends include miniaturization of antenna systems, integration with imaging technology, development of reconfigurable matching networks, and innovative array configurations for beyond-100 GHz communication systems. Kamil Yavuz Kapusuz is currently leading research as a Fellow on the project 'Design, Implementation and Validation of Metal-Free Continuous Transverse Stub (CTS) Arrays for Sub-Terahertz and Terahertz Wireless Communication Systems' (2024-2027), funded by Regional and community funding: Special Research Fund. He previously completed his doctoral research on 'Innovative Substrate-Integrated-Waveguide-Based Antenna Systems for the Fifth-Generation Wireless Communication Network' (2017-2021) at Ghent University.

• Engineering and technology
• Computer hardware
• Computer theory
• +3 more

Joris Van Kerrebrouck is a postdoctoral researcher at Ghent University within the Faculty of Engineering and Architecture , affiliated with the Department of Information Technology (EA05) . His work focuses on high-speed optical and electronic systems. Research Themes: Silicon photonics, radio-over-fiber technology, neuromorphic photonic circuits, heterogeneous integration, and millimeter-wave communication systems. Key Contributions: Development of ultra-high bandwidth modulator drivers, Tb/s optical transceivers, programmable photonic neurons, and advanced beamforming networks. Collaborations: Active partnerships with IMEC, academic institutions, and industry leaders in photonics and semiconductor technologies. Technical Expertise: SiGe BiCMOS, III-V integration, micro-transfer printing, and optical-electrical co-design.

Jay GopalakrishnanView profile

Professor

• Scientific computation
• Numerical analysis
• Finite elements
• +3 more

Jay Gopalakrishnan is a Professor of Mathematics and the Maseeh Distinguished Chair at Portland State University's Department of Mathematics. His research focuses on scientific computation, numerical analysis, finite elements, and multigrid methods with applications in optics and mechanics. He has contributed significantly to the development of hybridizable discontinuous Galerkin (HDG) methods and the Discontinuous Petrov-Galerkin (DPG) framework, emphasizing structure-preserving numerical techniques. His work spans diverse domains including microstructured optical fibers, spacetime tents for hyperbolic systems, and eigenvalue cluster computations. Notable research activities include developing accurate computational tools for leaky modes in fibers, stability analysis of acoustic waveguides, and bone mineralization models. He advises doctoral students at institutions such as Intel Corporation, The MathWorks, and James Madison University. His teaching includes advanced numerical analysis courses and undergraduate mathematical computing. Collaborations with researchers like L. Demkowicz and J. Schöberl highlight his interdisciplinary impact in computational mathematics and engineering.

• Photonics
• Optical Microresonators
• Non-Hermitian Physics
• +2 more

Bulent Aslan serves as a Research Fellow in the Department of Physics at the University of Trento, Italy, with his institutional affiliation centered at Via Sommarive, 14 - 38123 Povo. His academic role is research-intensive within the photonics domain. His research specializes in non-Hermitian photonics and integrated optical systems , with core expertise in Taiji microresonators , coupled resonator optical waveguides (CROW) , and silicon photonic devices . Current investigations focus on spectral response characteristics, optical routing optimization, and non-Hermitian system design for next-generation photonic integrated circuits. Analysis of his 2023-2025 publications reveals a concentrated research trajectory: all four papers address Taiji-CROW architectures and silicon waveguide couplers, demonstrating technical evolution from foundational device design (2023) to advanced routing optimization (2025). The work consistently bridges theoretical non-Hermitian physics with practical photonic circuit applications.

• Medical Imaging
• Prostate Cancer
• Magnetic Resonance Imaging (MRI)
• +5 more

Matthew Gibbons is a Researcher in the Department of Radiology at the University of California, San Francisco (UCSF) School of Medicine. His work bridges medical imaging, biomedical engineering, and clinical research, with a focus on prostate cancer and bone physiology. Education: PhD in Engineering Applied Science (UC Davis, 1995), MS in Nuclear Science (Air Force Institute of Technology, 1984), BS in Physics (Purdue University, 1982), and MS in Biomedical Imaging (UCSF, 2018). Gibbons specializes in Diagnostic Imaging , particularly MRI applications for prostate cancer detection and cortical bone vessel analysis. His research leverages Neural Networks , Image Processing , and Biomedical Engineering to improve tumor segmentation and histopathology reference standards. Recent publications (2015–2025) highlight his expertise in MRI , Prostate Cancer , and Computational Modeling . Collaborations with institutions like UC Davis and Purdue University underscore his interdisciplinary approach. Gibbons has worked with co-authors including Susan Noworolski, Peter Carroll, Jeff Simko, and John Kurhanewicz. His work spans journals such as Tomography , Magnetic Resonance Imaging , and Journal of Applied Physics , with additional contributions to patents in magnetic recording technology.

Martyn HillView profile

Professor

• Ultrasonic Microfluidics
• Biomedical Engineering
• Acoustofluidics
• +3 more

Professor Martyn Hill holds the Chair of Electromechanical Systems at the University of Southampton since 2008. His research focuses on ultrasonic wave applications in microfluidic systems, particularly through ultrasonic radiation forces, with significant biomedical collaborations. He co-founded the Ultrasonic Standing Wave Network, which evolved into the international Acoustofluidics conference series. Education: BSc in Engineering Acoustics and Vibration from Institute of Sound and Vibration Research, Southampton Leadership Roles: Deputy Head (Education) of School of Engineering Sciences (2006-2009), Head of Engineering Sciences (2011-2015), Associate Dean (Education) for Faculty of Engineering and Physical Sciences (2018-2021) His research spans ultrasonic particle manipulation, biomedical device design, and temperature monitoring systems. Key projects include collaborations with biomedical scientists and EPSRC-funded initiatives. His work demonstrates interdisciplinary integration of acoustics, microfluidics, and aerospace engineering. External roles include US Patent 8,425,749 B1 for a microfabricated particle focusing device and multiple invited speaking engagements on particle manipulation technologies. He currently supervises PhD student Anthony James Willis Lindley and contributes to educational leadership across engineering, chemistry, physics, and computer science programs.

• Computational Photonics
• Quantum Cascade Devices
• Microwave Engineering
• +3 more

Michael Haider is an Associate Professor at the Technical University of Munich within the TUM School of Computation, Information and Technology , specifically affiliated with the Chair of Computational Photonics (Prof. Christian Jirauschek). His work bridges quantum device modeling, stochastic electromagnetic field analysis, and advanced optoelectronic simulations. Research interests include: Quantum Cascade Lasers and Detectors Josephson Traveling-Wave Parametric Amplifiers Stochastic and Cyclostationary Electromagnetic Field Propagation Terahertz Technology and Frequency Comb Generation Computational Photonics and Microwave Modeling Principal Component Analysis for Electromagnetic Systems His recent publications focus on quantum amplification mechanisms, THz laser dynamics, and stochastic field modeling using Maxwell-Bloch frameworks. Collaborations with Prof. Jirauschek, Prof. Russer, and researchers at ETH Zürich and SPIE conferences highlight his interdisciplinary approach.