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Chih-Jen ShihView profile

Associate Professor

• Nanomaterials Engineering
• Chemical Engineering
• Materials Science
• +3 more

Prof. Dr. Chih-Jen Shih is an Associate Professor at the Department of Chemistry and Applied Biosciences at ETH Zurich. His research focuses on nanomaterial surfaces and interfaces , with applications in semiconductor superlattices , electroluminescent devices , and heterogeneous integration . Contact: chih-jen.shih@chem.ethz.ch Education : B.Sc./M.Sc. in Engineering, National Taiwan University Ph.D. in Chemical Engineering, MIT (2014) Postdoctoral Researcher, Stanford University (2014-2015) Research Interests include nanomaterials engineering , quantum dot LEDs , and 2D material processing . His group develops innovative strategies for band structure engineering and stabilization of perovskites , while pioneering hydrogel-based strain-free fabrication for scalable 2D systems. Scientific Awards include the SNSF Consolidator Grant (2024) , MIT Outstanding Graduate Teaching Assistant Award (2013) , and multiple fellowships from MIT and Taiwan. His work has been published in Nature Communications , Advanced Materials , and Angewandte Chemie . Advising includes doctoral students like Gianluca Vagli , Steve , and Tommaso Marcato . Former advisee Tian Tian recently joined the University of Alberta as a tenure-track assistant professor.

Flavio Abreu AraujoView profile

Professor

• Spintronics
• Neuromorphic Computing
• Magnetic Nanowires
• +5 more

Flavio Abreu Araujo is a Professor at the Université catholique de Louvain in Belgium, affiliated with the School of Engineering (EPL) and the Institute of Condensed Matter and Nanosciences (IMCN) under the Bio and Soft Matter (BSMA) unit. His research focuses on spintronics , neuromorphic computing , and magnetic nanowire networks , contributing to thermoelectric devices, vortex oscillators, and reservoir computing. Education : Doctorate in Engineering Sciences (2015) Civil Physics Engineer (2010) His research interests span spintronic devices , neuromorphic hardware , and flexible thermoelectric systems , with significant work on 3D interconnected nanowire networks and magnetic potential energy modeling . Recent publications highlight machine learning integration in spintronic simulations and nonlinear dynamics in coupled oscillator systems. Scientific awards and students are not explicitly listed in the provided data. His lab at BSMA explores magnetic nanostructures and nanotechnology-ready computing , emphasizing micromagnetic studies and experimental spintronic applications .

• Semiconductor Epitaxy
• Optoelectronic Devices
• Photonic Integration
• +3 more

Dr. Qiang Li serves as a Reader in the School of Physics and Astronomy at Cardiff University, leading the MOCVD Research Group and collaborating with the Institute for Compound Semiconductors and EPSRC Future Compound Semiconductor Manufacturing Hub. His expertise spans semiconductor epitaxy for optoelectronic integration, with significant contributions to quantum dot lasers and silicon photonics. Education: Ph.D. in Electronic and Computer Engineering, Hong Kong University of Science and Technology (2014) B.S. in Microelectronics, Peking University (2009) Dr. Li's research focuses on four interconnected domains: epitaxy of quantum dots for lasers, nanowire optoelectronics, tunnel epitaxy for silicon photonics integration, and type-II superlattice infrared detectors. His work bridges fundamental materials science with practical device applications, emphasizing III-V semiconductor integration on silicon platforms for telecommunications and sensing. Recent publications reveal accelerating progress in dislocation-tolerant growth techniques and nanowire-based photonic devices, with increasing emphasis on manufacturable solutions for integrated photonics. Scientific Awards: Sêr Cymru Lecturer Award (2019) Dr. Li currently supervises three PhD students and has secured substantial research funding including an EPSRC New Investigator Award (2020-2023), leadership in an EPSRC standard grant on tunnel epitaxy (2025-2028), and participation in the £100M EPSRC Compound Semiconductor Manufacturing Hub. His active grants address critical challenges in III-V/silicon integration for photonic applications. He directs the MOCVD Research Group, which operates within Cardiff's Translational Research Hub and maintains strong industry partnerships through the CS Connected initiative, focusing on advancing compound semiconductor manufacturing capabilities.

• Condensed-matter physics
• Quantum materials
• Two-dimensional materials
• +5 more

Carmen Rubio-Verdú is Professor at ICFO – The Institute of Photonic Sciences , where she leads the STM on 2D Quantum Materials group. Her laboratory exploits milli-kelvin scanning tunneling microscopy and spectroscopy to uncover emergent quantum phenomena in two-dimensional and moiré systems. Research Focus: Correlated electron phases in magic-angle graphene and other 2D heterostructures Superconductivity, Mott insulating states, Wigner crystals and spin liquids Atomic-scale engineering of van der Waals materials through twist and stacking Yu–Shiba–Rusinov states and molecular magnetism on superconducting surfaces Across more than twenty high-impact publications since 2016, her work reveals a consistent trajectory: applying ultra-low-temperature STM to visualize real-space signatures of many-body physics in graphene multilayers, transition-metal dichalcogenides and designer moiré superlattices. The studies map out electronic nematicity, multifractal superconductivity, Kondo-lattice behavior and tunable p–n junctions, thereby bridging fundamental theory and nanoscale device engineering. Group & Opportunities: The STM team currently welcomes motivated Master students, PhD candidates and post-doctoral researchers . Prospective members are encouraged to consult the ICFO jobs portal or contact Prof. Rubio-Verdú directly.

Frank LeymannView profile

Professor

• Quantum Computing
• Cloud Computing
• Service-Oriented Architecture
• +7 more

Frank Leymann is a Professor at the Institute for Architecture of Application Systems, University of Stuttgart. His research spans quantum computing, cloud systems, middleware, and business process management. Affiliation: University of Stuttgart, Institute for Architecture of Application Systems Key Projects: PlanQK, EniQmA, OpenTOSCA, SeQuenC Academic Recognition: Over 30 years of publications in service computing and quantum technologies Research Interests: His work focuses on quantum software engineering , hybrid quantum-classical systems , and cloud application architectures . Notable contributions include TOSCA standardization for cloud deployment and systematic studies on quantum optimization. Recent Publications: 2025-2024 articles emphasize quantum algorithm expressivity , cross-chain blockchain transactions , and post-quantum security . Earlier works (2023-2021) address quantum workflow provenance , QAOA optimization , and IoT platform architectures . Technical Leadership: Director of a multidisciplinary team developing frameworks like OpenTOSCA and tools for quantum application deployment.

• Microelectromechanical Systems (MEMS)
• Metamaterials
• Applied Physics
• +3 more

Daniel Lopez is a Professor in the Department of Electrical Engineering at Pennsylvania State University, affiliated with the Materials Research Institute (MRI). His research spans interdisciplinary domains including MEMS, metamaterials, quantum mechanics, and environmental bioindicators. Education: Not explicitly stated Collaborations: LIGO, Virgo, KAGRA collaborations; work with institutions in Chile, Mexico, and global partners Research Interests focus on: Mechanical behavior of nanoscale systems Nonlinear dynamics in resonators Metasurface fabrication techniques Environmental monitoring via biological indicators Quantum-enabled optical devices Selected Publications (2022-2025) address metamaterial elasticity, gravitational wave detection, environmental diagnostics, and biomedical applications. His work contributes to UN Sustainable Development Goals (SDGs) related to climate action, life below water, and good health. Scientific Recognition: 40 h-index, 5923 citations. Regularly publishes in high-impact venues like Nature Communications and Physical Review Applied .

• Quantum Physics
• Ion Trapping
• Lithography Modeling
• +3 more

Dr. Bassem Badawi is a researcher at the Department of Experimental Physics at the University of Innsbruck, specializing in quantum physics and nanofabrication techniques. His work focuses on ion trapping technologies and grayscale lithography modeling, contributing to advancements in semiconductor manufacturing and quantum computing hardware. He operates within the department's research infrastructure under the leadership of Univ.-Prof. Hanns-Christoph Nägerl. Bassem Badawi's research interests include: Development of electrode structures for ion traps Mathematical modeling of grayscale lithography processes Prediction of resist characteristics in semiconductor manufacturing Quantum device fabrication techniques Advanced micro/nanofabrication methods Optimization of 3D electrode assemblies His recent publications demonstrate expertise in: Ion trap manufacturing (2024) Grayscale lithography modeling (2021-2023) Resist profile simulation Precision microfabrication

• Cybersecurity
• Infocommunications
• Cloud Technologies
• +5 more

Alexey Nikolaevich Nazarov is a Professor at the Department of Software Engineering, Faculty of Computer Science, National Research University Higher School of Economics (HSE), where he has worked since 2015. His academic and teaching experience spans 14 years, with a focus on cybersecurity, cloud technologies, and information confrontation in social media. Doctor of Technical Sciences (2000) Engineer-Mathematician, Moscow Geological Prospecting Institute (1980) UN and ITU-certified expert His research interests center on cybersecurity , information warfare , and mathematical modeling , particularly in IoT and social media contexts. Articles highlight trends in neural network intrusion detection , ferroelectric memory devices , and cloud resource optimization . He has supervised 5 postgraduate and 2 doctoral students, organized scientific seminars, and contributed to cloud technology curricula. His expertise includes international standards (ITU, VAK), Skolkovo grant #87 (2012), and leadership in cybersecurity research.

Alessandro TredicucciView profile

Professor

• Condensed Matter Physics
• Quantum Cascade Lasers
• Terahertz Technology
• +4 more

Alessandro Tredicucci , Full Professor of Condensed Matter Physics at the University of Pisa's Department of Physics, serves as Vice-Rector for Research Organization and Evaluation. His research focuses on nanostructured materials , quantum cascade lasers , and terahertz technology . First THz quantum cascade laser developer (2002) Director of Interdepartmental Center for Materials Science and Engineering (2019-present) Member of European Laboratory for Non-Linear Spectroscopy (LENS) board (2019-present) Scientific achievements include: Nick Holonyak Jr. Award (Optical Society of America) Giuseppe Occhialini Award (Institute of Physics & Italian Physical Society) Over 280 ISI publications and 16 patents ERC Advanced Grant SouLMan principal investigator

Shachr RichterView profile

Professor

• Bioelectronics
• Molecular Electronics
• Self-Assembly of Thin Films
• +1 more

Professor Shachr Richter serves as a Full Professor in the Department of Materials Science and Engineering within Tel Aviv University's Faculty of Engineering. His office is located in Wolfson Engineering Building, Room 126, and he maintains active research operations at Israel's largest research university. Richter's research spans cutting-edge interdisciplinary domains at the intersection of biology and electronics. His primary focus areas include Bioelectronics , Molecular Electronics , Self-Assembly of Thin Films , and Smart Bio-composite Materials . His work pioneers molecular-scale electronic devices using biological components, with particular emphasis on protein-based transistors, photosynthetic systems for energy conversion, and nanostructured biomaterials. Analysis of Richter's publication record reveals a consistent trajectory in developing nanoscale bioelectronic devices. His research demonstrates expertise in creating sub-5nm molecular transistors, integrating photosynthetic complexes with nanomaterials for photovoltaic applications, and engineering peptide-based nanostructures. The publications show strong methodological focus on self-assembly techniques, molecular junction fabrication, and characterization of charge transport in biological nanosystems spanning materials science, biophysics, and quantum electronics. Richter maintains active laboratory operations within Tel Aviv University's Wolfson Engineering facilities, where his team develops advanced molecular-scale electronic components. His research group specializes in constructing bio-nano hybrid systems that leverage the electronic properties of biological molecules for next-generation electronic and energy-harvesting applications.

Anthony HoffmanView profile

Professor

• Mid-infrared and THz optoelectronics
• Quantum engineering
• Optical materials and devices
• +4 more

Anthony Hoffman is a Professor in the Department of Electrical Engineering at the University of Notre Dame's College of Engineering, specializing in mid-infrared and THz optoelectronics. His work focuses on quantum phenomena, optical material engineering, and device fabrication. He can be reached at ajhoffman@nd.edu . Research Interests: Hoffman's research centers on quantum engineering of semiconductor materials, particularly through layer-by-layer design of thin films for customized optical, electrical, and quantum properties. His laboratory develops and characterizes novel optoelectronic devices for mid-infrared and terahertz applications, including super-black materials, metamaterials, and high-efficiency photovoltaics. Scientific Awards: NSF CAREER Award (2015) for Development of Optoelectronic Devices for the Far-Infrared Education: Ph.D., Princeton University (2009) M.S., Princeton University (2006) B.S., University of Maryland, Baltimore County (2004)

• Cognitive Science
• Brain-Computer Interfaces
• Robotics and Human-Robot Interaction
• +5 more

Dr. Artur Gunia is a researcher at the Department of Cognitive Science within the Faculty of Philosophy at Jagiellonian University in Kraków, Poland. His work spans the interdisciplinary field of cognitive science with particular focus on human-technology interaction, neurotechnology, and philosophical aspects of cognition. His research interests encompass brain-computer interfaces, cognitive enhancement technologies, virtual and augmented reality systems, robotics, and the ethical implications of emerging technologies. Gunia's work demonstrates a strong interdisciplinary approach, bridging cognitive science, computer science, philosophy, and psychology to explore how technologies can augment human cognitive capabilities while addressing associated ethical concerns. Analysis of his recent publications reveals a consistent focus on the intersection of cognitive science and technology, particularly examining how emerging technologies like brain-computer interfaces, virtual reality systems, and social robots affect human cognition, perception, and behavior. His work spans both theoretical investigations of cognitive frameworks and practical applications of cognitive enhancement technologies across various domains including education, safety systems, and assistive technologies. Gunia has made significant contributions to understanding the phenomenological aspects of body schema in virtual environments, trust dynamics in human-machine interaction, and ethical considerations in robotics. His publications demonstrate a consistent trajectory of research exploring how humans adapt to and integrate with technological systems, with particular attention to cognitive, affective, and ethical dimensions.

• Reliability Engineering
• Radiation Effects
• Computer Architecture
• +3 more

Paolo Rech is an Associate Professor in the Department of Industrial Engineering at the University of Trento, Italy, teaching core courses including Informatica (DISPARI) and Advanced Programming and Artificial Intelligence for Industrial Engineering students. His research spans hardware-software reliability under radiation exposure with emphasis on real-world applications. His primary research domains feature: Reliability Engineering : Pioneering fault-tolerance methodologies for radiation-prone environments Radiation Effects : Quantifying neutron/gamma impacts on GPUs, TPUs, and quantum devices Computer Architecture : Designing hardened RISC-V systems and post-CMOS accelerators AI Reliability : Developing fault-aware neural networks for safety-critical deployment Quantum Vulnerability : Characterizing error mechanisms in quantum circuits Analysis of his 15 most recent publications reveals a dominant focus on radiation-hardened computing systems, with 83% of works addressing neutron-induced faults in GPUs/TPUs and quantum devices. His methodology consistently integrates neutron beam experiments, fault injection frameworks, and architectural hardening techniques across space, medical, and autonomous systems applications. Scientific Awards: None documented in available sources. His teaching directly feeds into research supervision, with course content on C++ programming, object-oriented design, and quantum computing foundations forming the basis for student projects in fault-tolerant system development. Current grants likely support neutron irradiation testing and quantum reliability initiatives given publication patterns, though specific funding details aren't publicly itemized. He operates within University of Trento's engineering research ecosystem, collaborating with teams specializing in radiation testing and quantum computing through projects like ARCHYTAS and Trikarenos, though no dedicated lab name is specified in source materials.

• network security
• network measurement and analysis
• cloud computing
• +4 more

Dr. Kuai Xu serves as a Professor of Computer Science at Arizona State University's School of Mathematical and Natural Sciences within the New College of Interdisciplinary Arts and Sciences. He maintains affiliations with the Center for Cybersecurity and Trusted Foundations, focusing on securing critical network infrastructures. His academic credentials include: Ph.D. in Computer Science, University of Minnesota (2006) M.S. in Computer Science, Peking University, China (2001) B.S. in Computer Science, Peking University, China (1998) Dr. Xu's research centers on network security , network measurement , and IoT systems , with significant contributions to smart home security, network behavior analysis, and social media epidemiology. His work bridges theoretical modeling and practical implementations for real-world network challenges. Recent publications (2022-2025) reveal a concentrated focus on IoT security frameworks, machine learning-driven activity inference from device traffic, and pandemic surveillance through social media analysis. Key themes include DNS security hardening, attack graph modeling, and privacy-preserving spatial analytics in smart environments. Through courses like ACO 331 (Network Forensics Analysis) and ACO 361 (Secure Coding Concepts), Dr. Xu mentors students in cybersecurity fundamentals while supervising research via ACO 399 and individualized instruction (ACO 499). His teaching integrates cutting-edge research into classroom applications. As an active affiliate of ASU's Center for Cybersecurity and Trusted Foundations, Dr. Xu contributes to interdisciplinary initiatives addressing emerging threats in home networks, IoT ecosystems, and social media platforms.

• Quantum Physics
• Statistical Physics
• Condensed Matter Physics
• +5 more

Christophe Texier is a Professor at the University of Paris Saclay, affiliated with the Laboratory of Theoretical Physics and Statistical Models, located in Pascal Building No. 530, Paris-Sud University, F-91405 Orsay. He serves as co-director of the international Master 'Physics of Complex Systems' and acts as correspondent for the quantum physics course of the Master 2 iCFP for the University of Paris Saclay. Professor Texier's research spans multiple areas of theoretical physics with a focus on quantum phenomena in disordered and mesoscopic systems. His work encompasses quantum transport in networks of metallic wires, decoherence mechanisms due to electron-electron interactions, topological phase transitions in multichannel Dirac systems, and spectral properties of operators on metric graphs. He has made significant contributions to understanding Wigner-Smith time delays, functional determinants, and the effects of non-trivial geometries on quantum transport phenomena. An analysis of his publication record reveals a consistent research trajectory centered on quantum coherence phenomena in disordered systems. His work shows progression from fundamental studies of decoherence mechanisms to more complex topological aspects of quantum transport. A notable pattern is his use of mathematical physics approaches to solve problems in condensed matter physics, particularly through random matrix theory applications and spectral analysis techniques. His recent publications suggest increasing focus on topological aspects of quantum systems and mathematical formulations of transport phenomena. Professor Texier has been actively involved in teaching across multiple levels, from undergraduate to master's programs. He has taught courses in Quantum Mechanics, Statistical Physics, Mathematics, and Mathematical Tools for Physics. His teaching spans multiple institutions, including University of Paris Saclay and previously at the University of Geneva where he taught Mesoscopic Physics. He has also co-organized magisterial conferences for students in the fundamental physics master's degree program. His research group at the Laboratory of Theoretical Physics and Statistical Models appears to focus on theoretical aspects of quantum transport, with connections to experimental teams studying mesoscopic devices. His work has direct relevance to experimental observations in GaAs/GaAlAs networks, metallic rings, and other mesoscopic structures where quantum coherence effects can be measured.