Find Academic Supervisors

• Superconductivity
• Quantum Physics
• Condensed Matter Physics
• +3 more

Edward Goldobin is a Senior Lecturer in the Department of Physics at the University of Tübingen , affiliated with the Faculty of Mathematics and Natural Sciences . His research focuses on superconductivity , quantum physics , and condensed matter physics , particularly in the context of Josephson junctions and vortex dynamics. Research Interests: Goldobin's work explores the behavior of Josephson junctions under various conditions, including the effects of helium ion beam irradiation, vortex pinning, and quantum tunneling phenomena. His studies often involve high-temperature superconductors like YBa2Cu3O7−δ thin films. Recent Publications: His recent research includes advancements in creating periodic pinning arrays for vortices, analyzing temporal defect evolution in superconducting materials, and developing high-efficiency Josephson ratchet systems. These contributions highlight his focus on both fundamental quantum mechanics and applied superconducting technologies.

Cristina ArcherView profile

Professor

• Renewable Energy
• Wind Power
• Meteorology
• +3 more

Cristina L. Archer is a Professor and Unidel Howard Cosgrove Career Development Chair in Environment at the University of Delaware. She holds a split appointment between the Department of Geography and Spatial Sciences and the Department of Mechanical Engineering. Her roles include Director of the Center for Research in Wind (CReW) and Faculty Director of the Eco-Entrepreneurship certificate program. She earned her Ph.D. in Civil and Environmental Engineering from Stanford University (2004), an M.S. in Meteorology from San Jose State University (1998), and an M.S. in Civil and Environmental Engineering from Politecnico di Milano (1995). Her research focuses on renewable energy, wind power, meteorology, climate change, air quality, and numerical modeling of atmospheric processes. She leads the Atmosphere and Energy Research Group (AERG), advising numerous PhD students and postdocs. Her work explores wind energy impacts on climate, air quality, and hurricane dynamics, with contributions to wind farm optimization and energy-food nexus studies. Dr. Archer’s research has been published in journals like *Monthly Weather Review*, *Environmental Research Letters*, and *Applied Energy*. She serves on editorial boards for *Meteorological Applications* and *Bulletin of the Atmospheric Science and Technology*. Her lab, CReW, investigates technical, environmental, and policy dimensions of wind energy deployment. Grants & Funding: Extensive support for wind energy research, including studies on offshore wind impacts, hurricane mitigation via turbines, and climate modeling. Labs/Teams: Center for Research in Wind (CReW), Atmosphere and Energy Research Group (AERG). Advising: Mentored over 20 graduate students and postdocs since 2012, with notable contributions to wind farm modeling, air quality, and energy policy.

• Oceanography
• Underwater Acoustics
• Environmental Impact Assessment
• +5 more

John Robert Potter is a Professor in the Department of Electronic Systems at NTNU's Faculty of Information Technology and Electrical Engineering. He holds expertise in marine physical science with multidisciplinary backgrounds in mathematics, physics, polar oceanography, and glaciology. His work integrates environmental conservation principles with advanced technology development. Education includes degrees in mathematics, physics, and specialized fields in polar oceanography and glaciology. His research focuses on underwater acoustics, ambient noise analysis, and marine mammal behavior. He pioneers applications of distributed acoustic sensing (DAS) for ocean monitoring, autonomous vehicles, and sustainable practices. His recent work explores fiber-optic networks for tracking whales, seismic activity, and storms in Arctic environments. Teaching responsibilities include courses on bioacoustics, acoustic signal processing, and electronic systems design. Outreach activities include international conferences and workshops, such as IEEE OES lectures in Singapore and Pisa. Publications emphasize DAS innovation, underwater communication, and multi-sensor systems. Key collaborations involve institutions like IEEE, EAGE, and international research groups.

Gerhard KirchmairView profile

Professor

• Quantum Optics
• Superconducting Circuits
• Quantum Information
• +4 more

Prof. Gerhard Kirchmair is a faculty member at the University of Innsbruck, leading the Kirchmair Lab within the Department of Quantum Optics and Quantum Information. He specializes in superconducting quantum circuits and circuit quantum electrodynamics (cQED), focusing on quantum information processing, quantum simulation, and optomechanical systems. His research includes developing platforms for analog quantum simulation using superconducting qubits, magnetomechanical systems for quantum transduction, and bistable Josephson junction arrays. His lab emphasizes experimental work with cutting-edge techniques in nanofabrication, low-temperature physics, and microwave engineering. Notable projects involve single-photon cooling in magnetomechanics, coherent control of multi-qubit dark states, and the creation of 'hot' Schrödinger cat states in thermal environments. Prof. Kirchmair advises numerous PhD and Master’s students, fostering a collaborative environment for advancing quantum technologies. Key achievements include pioneering work on nonlinear cavity designs and scalable quantum measurement systems. His group actively collaborates on global initiatives in quantum computing and quantum sensing, with publications in top journals like Nature Physics and Physical Review Letters .

Marco WillView profile

Researcher

• Graphene
• Carbon Nanotubes
• Resonators
• +7 more

Marco Will is a Project Employee at Aalto University's Department of Applied Physics , specializing in quantum devices and nanoscale systems. He holds a Master's degree in Engineering and Technology from Rheinisch-Westfälische Technische Hochschule Aachen (awarded 2016). Education: Master's in Engineering and Technology (RWTH Aachen, 2016) Marco's research focuses on graphene-based quantum systems , carbon nanotubes , and superconducting microwave devices . Key areas include low-noise amplification , thermal response dynamics , and entanglement generation using advanced nanofabrication techniques. His work often intersects with quantum technology , microwave engineering , and condensed matter physics . Recent publications highlight his expertise in graphene microwave resonators , Josephson junction fluctuations , and Kerr-free metamaterials for quantum information processing. Collaborations span institutions in Europe, with datasets contributed to open repositories like Zenodo. Marco has presented at international conferences, including a 2020 talk on suspended CNT weak links for condensed matter sensing. His research outputs include 13 publications, multiple datasets, and a doctoral thesis on low-dimensional electrical systems .

• Antennas
• Wireless Sensors
• Antenna Measurements
• +5 more

Professor Ville Viikari is a leading academic in antenna engineering and wireless systems at Aalto University's Department of Electronics and Nanoengineering. His work focuses on advanced antenna designs for mobile devices, 5G/6G networks, RF energy harvesting, and radar systems. He is affiliated with the Aalto University School of Electrical Engineering. Research interests include antenna arrays, coupled systems, and measurement techniques with applications in RFID, backscattering, and IoT. His innovations span frequency-reconfigurable antennas, shared-aperture designs, and millimeter-wave systems. Awards: IEEE Sensors Council Early Career GOLD Award (2010) Aalto Doctoral Thesis Award (2022) Young Researcher Award (2014) Key Projects: Zero Power Sensor Network (2010–2013) as project manager Development of 3D-printed antenna arrays and CMOS circulators Recent Work: Advances in Ka-band Vivaldi arrays and E-band transmitarrays AI-driven antenna optimization using swarm intelligence Wideband MIMO antennas for full-screen mobile devices His research group collaborates on cutting-edge projects blending antenna physics with emerging technologies like 6G and AI-driven design methodologies.

Sebastian NagelView profile

Researcher

• Audio Signal Processing
• Spatial Audio
• Binaural Recording
• +3 more

Dr.-Ing. Sebastian Nagel is a scientist at the Institute of Communication Systems and Data Processing (IKS) under the Faculty of Electrical Engineering and Information Technology at RWTH Aachen University . His research focuses on immersive binaural audio systems, spatial audio signal processing, and real-time adaptation of head-related transfer functions (HRTFs). Key research areas include: Interactive binaural reproduction for moving listeners Coherence-adaptive binaural cue algorithms Acoustic head-tracking with unconstrained movement Dereverberation and noise reduction in spatial audio His recent work (2025) extends binaural cue adaptation for hearable devices, while earlier publications (2024-2018) address multi-microphone integration, HRTF modeling, and real-time signal enhancement. Teaching activities include Laboratory Real-Time Audio Processing and Selected Topics in Communications Engineering seminars. Contact: Room 314 | Phone: +49 241 80-26961 | Email: nagel@iks.rwth-aachen.de

Andrew HouckView profile

Associate Professor

• Quantum Computing
• Superconductivity
• Circuit Quantum Electrodynamics
• +3 more

Andrew Houck is an Associate Professor at Princeton University, specializing in superconducting quantum circuits and quantum computing hardware. His research focuses on advancing qubit coherence, material science for quantum devices, and novel architectures for scalable quantum systems. Key projects include the development of fluxonium-based qubits, tunable couplers for high-fidelity gates, and the QICK (Quantum Instrumentation Control Kit) for qubit control. His work addresses challenges in superconducting circuit design, such as oxide-related losses, vortex motion effects, and parametric gate implementations. He explores topological states in flat-band lattices and investigates materials like tantalum for improved qubit performance. Recent advancements include achieving millisecond coherence times in transmons and demonstrating protected qubit subspaces. Research interests span quantum error correction, photonic crystal integration, and heterogeneous microarchitectures for quantum computers. His contributions bridge theoretical modeling and experimental validation, with a focus on practical implementations for large-scale quantum systems.

Wei BaiView profile

Associate Professor

• Computational Hydrodynamics
• Wave-Structure Interactions
• Offshore Engineering
• +3 more

Dr. Wei Bai is a Reader in Mathematics at Manchester Metropolitan University's Department of Computing and Mathematics, specializing in computational marine hydrodynamics. He holds a Ph.D. in Port, Coastal and Offshore Engineering from Dalian University of Technology. Research focuses on: Numerical modeling of wave-structure interactions Offshore renewable energy systems Sloshing dynamics and hydrodynamic stability Computational fluid dynamics development His extensive publication record demonstrates consistent innovation in numerical methods for marine applications, with recent emphasis on moonpool hydrodynamics, floating wind turbines, and advanced CFD techniques. Research integrates theoretical modeling with practical offshore engineering challenges. Dr. Bai serves on editorial boards for Applied Ocean Research, Ocean Engineering, and Journal of Marine Science and Application. He has supervised multiple doctoral students in marine hydrodynamics and offshore engineering.

• Quantum Information
• Superconductivity
• Nanomaterials
• +3 more

Sergio Pagano is a Full Professor at the University of Salerno, affiliated with the Department of Physical Sciences and Technologies of Matter. His research focuses on quantum technologies, superconductivity, nanomaterials, and sensor systems. He has contributed to projects like DARTWARS, advancing parametric amplifiers and Josephson junction-based devices. His work spans quantum information processing, energy harvesting solutions, and sustainable materials for sensors and supercapacitors. Pagano collaborates widely, with notable contributions to low-temperature physics, nonlinear dynamics, and applied superconductivity. University Affiliation: University of Salerno Department: Department of Physical Sciences and Technologies of Matter Research interests include quantum computing, superconducting circuits, eco-friendly nanomaterials, and sensor technology. His recent projects explore hyperentanglement protocols, energy-efficient IoT systems, and the development of low-power temperature sensors using hydrogel nanocomposites. Pagano also investigates noise spectroscopy in solar cells and electrical transport in thin films. Publications highlight advancements in parametric amplification, Josephson junction dynamics, and energy storage systems. Collaborative efforts with SPIN (CNR) and international teams emphasize experimental and theoretical work in quantum devices and low-noise detection for axion searches.

Christos PapachristouView profile

Professor

• Embedded Systems Design
• Parallel Computer Architectures
• Quantum Computing
• +4 more

Christos Papachristou, PhD is a Professor in the Department of Electrical, Computer, and Systems Engineering at the Case School of Engineering , Case Western Reserve University. His academic career spans over four decades since earning his PhD in Electrical Engineering & Computer Science from Johns Hopkins University in 1975. Prof. Papachristou's research focuses on Embedded Systems Design , Quantum Computing Architectures , Reconfigurable Systems/FPGAs , and Hardware Security . His work addresses critical challenges in fault-tolerant systems , secure system design , and high-level synthesis . Notable contributions include innovations in radiation-hardened SRAM designs , hardware trojan detection , and quantum computing infrastructure . Key Achievements: Recipient of the Albert Nelson Marquis Lifetime Achievement Award (2019) IEEE Best Paper Award for Cognitive Communications for Aerospace Applications (2019) Invited NATO Summer School Lecturer (2008) in Spain/UK and Cleveland His publications reflect expertise in circuit reliability , embedded system security , and quantum computing . Recent work emphasizes electromigration mitigation and reconfigurable architecture kernels . Prof. Papachristou collaborates extensively on projects funded by NSF, DoD, and industry partners. Teaching specialties include Parallel Computer Architectures , Configurable Devices , and Quantum Computing , reflecting his dual focus on theoretical innovation and practical implementation in advanced technologies.

Louis-Noël PouchetView profile

Associate Professor

• polyhedral compilation
• iterative and adaptive compilation
• auto-tuning compilers
• +15 more

Louis-Noël Pouchet is an Associate Professor in the Department of Computer Science at Colorado State University, with a joint appointment in the Electrical and Computer Engineering department. He leads research in high-performance computing, focusing on polyhedral compilation, performance portability, and hardware-software co-design. His research interests include polyhedral compilation, iterative and adaptive compilation, machine learning for compilers, performance-oriented domain-specific languages, energy-aware program optimization, and high-level synthesis. He develops compiler technologies to optimize and parallelize code for heterogeneous platforms, with applications in scientific computing and embedded systems. The 15 most recent publications highlight a strong focus on compiler optimization for high-performance systems, particularly using the polyhedral model. Key themes include data locality, parallelization, vectorization, memory access optimization, and performance modeling. His work spans both theoretical advances in program transformation and practical implementations in tools like PoCC and PolyOpt. Member, Center for Domain-Specific Computing (NSF) Member, DSL Technology for Exascale Computing (DoE) Lead, Polyhedral Compilation Research (NSF and Intel ISRA) Former member, Platform-Aware Compilation Environment (DARPA) He teaches courses on polyhedral compilation and has developed widely used software tools such as PoCC, PolyBench/C, and PolyOpt/C. His research is supported by major funding agencies including NSF, DoE, and Intel.

Troy CarterView profile

Professor

• Nuclear Fusion
• Magnetically Confined Plasmas
• Plasma Instabilities
• +4 more

Troy Carter is a Professor of Physics at the University of California, Los Angeles, holding appointments in the Department of Physics and Astronomy. He serves as Director of the Basic Plasma Science Facility (BaPSF), a national user facility supported by the U.S. Department of Energy and National Science Foundation, and as Director of the Plasma Science and Technology Institute (PSTI) at UCLA. His research centers on enabling carbon-free electricity generation through nuclear fusion, specifically via magnetically confined plasmas. BS in Physics and Nuclear Engineering, North Carolina State University (1995) PhD in Astrophysical Sciences, Princeton University (2001) Prof. Carter's research focuses on fundamental plasma physics with applications to fusion energy. His work investigates instabilities, turbulence, and transport phenomena in magnetically confined plasmas. He has pioneered laboratory studies of Alfvén waves, magnetic reconnection, and wave-particle interactions relevant to both fusion plasmas and space physics. His group utilizes the Large Plasma Device (LAPD) at UCLA's Basic Plasma Science Facility for experimental investigations. Current research trends in his publications emphasize wave coupling phenomena, advanced diagnostics development, machine learning applications in plasma physics, and workforce development for fusion energy. 2002 APS DPP Excellence in Plasma Physics Research Award Fellow of the American Physical Society (APS) As Director of BaPSF, Prof. Carter manages a national user facility providing experimental capabilities to over 100 researchers annually from universities, national laboratories, and industry. His leadership in the Plasma Science and Technology Institute fosters interdisciplinary collaborations across plasma physics, fusion energy, and space science. Current research initiatives include advancing antenna technologies for plasma heating, developing synthetic diagnostics for turbulence measurements, and investigating fundamental processes relevant to solar corona heating and auroral phenomena. His group actively participates in major fusion research programs including collaborations with DIII-D and MAST tokamaks. Prof. Carter's laboratory conducts experimental studies using the Large Plasma Device (LAPD), featuring capabilities for Alfvén wave experiments, magnetic reconnection studies, and plasma turbulence investigations. His team develops specialized diagnostics including Doppler backscattering systems and novel antenna arrays. The PSTI coordinates research efforts across multiple UCLA laboratories focused on plasma applications in energy, space, and technology development.

• Electrical Engineering
• Biomedical Engineering
• Materials Engineering
• +7 more

Richard Brown is a Distinguished Professor of Electrical & Computer Engineering and holds appointments in the School of Computing at the University of Utah. Previously serving as Dean of the College of Engineering from 2004 to 2024, he leads research in chemical sensors, neural interfaces, and high-performance microelectronics. His work spans biomedical engineering, materials science, and quantum physics, with over 90 publications and 50+ patents. Awards include the Rosenblatt Prize, Governor's Medal for Excellence, and Fellowships from National Academy of Inventors and IEEE. His teams develop implantable neural probes, electrochemical sensors, and low-power circuits for medical and industrial applications. Education: BS (1976), MS (1976) in Electrical Engineering from Brigham Young University; PhD (1985) in Electrical Engineering from University of Utah. Research Interests: Chemical sensors, neural interfaces, microelectrode arrays, electrochemical systems, high-temperature electronics, and low-power VLSI design. Key Contributions: Pioneered microfluidic sensor systems, developed novel electrocorticography techniques for brain-computer interfaces, and advanced process variation mitigation in nanometer-scale CMOS circuits. Holds leadership roles in IEEE, ASEE, and National Institutes of Health-funded projects. Awards & Honors: Rosenblatt Prize for Excellence (2018) H. E. Thomas Presidential Endowed Deanship (2020) IEEE Fellow (2014) National Academy of Inventors Fellow (2015) Grants & Collaborations: Over $5M in grants from NSF, NIH, IBM, and industry partners. Major projects include the Wireless Integrated Microsystems ERC, chemical sensor arrays for medical diagnostics, and neuroprosthetic systems. Labs/Teams: Leads the Brown Lab for Advanced Sensors and Circuits, collaborating with biomedical engineers, material scientists, and industry partners to translate research into clinical and commercial applications.

Dov KrugerView profile

Teaching Professor

• High Performance Computing
• Network Programming
• 3D Printing
• +3 more

Dov Kruger is an Associate Teaching Professor in the Department of Electrical Engineering at Rutgers University. He holds a BE in Electrical Engineering, an MS in Computer Science, and a PhD in Ocean Engineering, all from Stevens Institute of Technology. Prior to Rutgers, he spent 10 years as a professor at Stevens. His research focuses on high-performance computing, network programming, 3D printing, and computing education. He explores re-engineering software for efficiency, distributed programming models, and innovations in data compression and secure networking. His work also encompasses underwater acoustics and sensor systems from earlier career phases. Key themes in his recent articles include real-time video processing, federated learning privacy, AI bias mitigation, and blockchain-based systems. His earlier contributions involved underwater robotics and environmental sensor networks in estuaries. Dr. Kruger seeks collaborators in FPGA, network programming, and 3D printing. He has no listed scientific awards but maintains active research in multidisciplinary computer science and engineering education.