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Kishore KamparaView profile

Research Fellow

• Nanomaterials
• Gas Sensors
• Energy Storage
• +3 more

Dr. Kishore Kampara is a Postdoctoral Researcher at the International Iberian Nanotechnology Laboratory (INL) in Braga, Portugal, working under João Piteira in the System Engineering group. His research focuses on developing thin oxide gas sensors and energy storage devices through advanced nanomaterials engineering. Dr. Kampara earned his Ph.D. in Nanomaterials-based Chemiresistive Gas Sensors from SASTRA Deemed University, India, followed by postdoctoral positions at Jeonbuk National University and Sungkyunkwan University in South Korea. His academic journey reflects deep specialization in materials science and nanotechnology applications. His research spans multiple cutting-edge domains: Synthesis and fabrication of nanomaterials via electrospinning techniques Chemiresistive gas sensor development for environmental monitoring Advanced energy storage systems including Li-ion, Li-CO2, and Li-S batteries Flexible electronics and electronic skin applications Numerical modeling of semiconductor devices using TCAD Radio frequency and microwave engineering integration Dr. Kampara's technical expertise includes MATLAB and Synopsys Sentaurus TCAD for semiconductor simulation, photolithography, and device fabrication. His interdisciplinary approach bridges nanotechnology, materials science, and electronic engineering to innovate solutions for sensor technology and energy storage challenges.

Marina AntoniouView profile

Associate Professor

• Power Electronics
• Semiconductor Devices
• SiC Materials
• +4 more

Dr. Marina Antoniou is an Associate Professor in the School of Engineering at the University of Warwick, specializing in power semiconductor devices and wide bandgap materials. She holds a PhD, MEng, and BA from the University of Cambridge (Trinity College). Her research focuses on SiC-based power devices, aiming to enhance energy efficiency, reliability, and cost-effectiveness for applications in smart grids, automotive systems, and power electronics. She has secured significant grants, including a Royal Society Research Fellowship (£860k), and serves as Chair of the IEEE Electron Devices Society Power Devices & ICs Committee (2022–2023). Her editorial roles include Associate Editor for the IEEE Transactions on Electron Devices and Royal Society Philosophical Transactions A. Research Interests: SiC power devices, superjunction technology, high-frequency electronics, and radiation-hardened devices. Grants: Royal Society, EPSRC, and industry partnerships. Committees: IEEE IEDM, ISPSD, and IET PEMD Technical Network. Dr. Antoniou supervises four PhD students, with a focus on SiC device modeling and applications. She has authored five patents and over 50 peer-reviewed articles, contributing to advancements in power electronics reliability and performance.

Yaser HaddaraView profile

Associate Professor

• Microelectronics
• Semiconductor Devices
• Semiconductor Process Modeling
• +2 more

Yaser M. Haddara is an Associate Professor in Electrical and Computer Engineering at McMaster University. His research focuses on semiconductor process modeling, SiGe/SiC device physics, and materials characterization for microelectronics applications. He holds a B.Eng. from Memorial University of Newfoundland, and M.Sc. and Ph.D. degrees from Stanford University. Research interests include: Semiconductor process physics and modeling SiGe interdiffusion and oxidation mechanisms Cobalt germanidation for contact formation Advanced materials integration for sensors TCAD-based device simulation Recent publications emphasize novel bonding techniques for sensor applications, semiconductor contact engineering, and nanoscale materials characterization. His work bridges fundamental materials science with microelectronics fabrication challenges. Dr. Haddara teaches courses in semiconductor device theory, electronic devices, and circuits. His educational research explores problem-based learning and engineering education methodologies.

• Micro-Nanoelectronics
• Semiconductor Physics
• Materials Science
• +5 more

Dimitrios Skarlatos is a Professor in the Department of Physics at the University of Patras, specializing in Micro-Nanoelectronics and Semiconductor Physics with applications in Microelectronics. His academic career spans over two decades, with progressive appointments from Assistant Professor to his current position as full Professor since August 2023. He maintains extensive research collaborations with institutions including EKETE Demokritos, international universities, and semiconductor research centers across Europe. Skarlatos earned his Doctoral Degree from the Department of Physics of the School of Sciences at Aristotle University of Thessaloniki in 2000, with a thesis on "The role of point and extended silicon defects in the operation of MOS transistors." Prior to this, he completed a Postgraduate Diploma in Condensed Matter Physics from the University of Crete (1993) and his undergraduate degree in Physics from the University of Athens (1990). His research focuses on Group IV semiconductor materials (Silicon, Strained Silicon, Germanium) for CMOS technology applications. Key areas include experimental study of extended defects, ion implantation and dopant diffusion/activation, MOS gate dielectric development, and novel memory device architectures (nanocrystal memories, MANOS, ReRAM). His work combines advanced cleanroom processing techniques with electrical characterization and simulation methods. Analysis of his recent publications reveals a strong focus on germanium-based semiconductor devices, with particular attention to dopant behavior, interface engineering, and memory applications. His research has evolved from traditional silicon processing to emerging germanium technologies and novel memory architectures, demonstrating consistent innovation in semiconductor materials science. Skarlatos has supervised 3 completed doctoral dissertations (with 1 in progress), 5 postgraduate theses, and 12 undergraduate theses. He has led multiple research projects including EU-funded initiatives (ESPRIT, GROWTH, IST) and national research programs (GGTE, HERACLES II), focusing on semiconductor front-end processes, memory technologies, and solar cell applications. His laboratory work involves advanced cleanroom processing (ALD, thermal processing, optical lithography), electrical characterization (C-V, G-V, I-V), and collaboration with TEM facilities. He maintains strong connections with semiconductor research centers including CEMES/CNRS in Toulouse and has extensive experience with TCAD simulation tools.

Vlad MarsicView profile

Assistant Professor

• RF Engineering
• Wireless Networks
• Electromagnetic Simulation
• +4 more

Dr. Vlad Marsic is an Assistant Professor specializing in RF engineering and semiconductor technologies. He is affiliated with the Centre for E-Mobility and Clean Growth, focusing on experimental and theoretical research in magnetic sensors, GaN transistors, and energy harvesting systems. His work contributes to UN Sustainable Development Goals related to clean energy and infrastructure innovation. Education: BEng in Communication Engineering, Faculty of Electronics and Telecommunications, 'Gh. Asachi' University, Romania (2002) MSc in Low Power RF Sensing, School of Applied Sciences, Cranfield University, UK (2012) EngD in RF Communication and Location Services, Warwick Manufacturing Group (WMG), University of Warwick, UK (2019) Research Interests: RF Technologies: Wireless networks, power line communication (PLC), and remote sensing Semiconductor Devices: GaN transistors, Hall-effect sensors, and switching behavior analysis Energy Systems: Li-ion battery diagnostics and energy harvesting Research Trends: His publications (2021–2025) emphasize advancements in GaN-based sensor integration, magnetic field analysis, and battery diagnostics. Recent work addresses challenges in sensor sensitivity, noise mitigation, and energy-efficient communication systems. Awards: Best Paper Award (multiple conferences in RF experimental and modelling domains) Grants and Labs: Involved in collaborative projects with industry partners, focusing on smart infrastructure and clean energy technologies. Active in interdisciplinary teams developing novel sensing and communication solutions. Key Collaborations: Engaged with institutions across the UK and international partners in electromagnetic simulation, semiconductor design, and sustainable energy systems.

• Semiconductor Devices
• Electronics Engineering
• Materials Science
• +3 more

Olivier J. S. Ostinelli is a Researcher at ETH Zürich, affiliated with the Department of Information Technology and Electrical Engineering. He is part of the Millimeter-Wave Electronics Group, focusing on semiconductor device research, particularly in InP-based bipolar transistors and optoelectronic components. His work emphasizes high-frequency electronics, materials science, and device physics. After earning his Ph.D. from ETH Zürich in 2006, he has contributed extensively to advancements in double heterojunction bipolar transistors (DHBTs) and high electron mobility transistors (HEMTs). His research addresses crystal growth techniques, breakdown voltage optimization, and high-speed device performance. Key areas of investigation include: Impact ionization mechanisms in DHBTs Type-II band alignment effects Millimeter-wave and terahertz applications Photodiode design for high-speed communications Compact modeling for integrated circuit design His recent work highlights breakthroughs in achieving optimal breakdown voltages in scaled DHBTs and developing ultra-wideband photodiodes for 300 Gbps communication systems. Collaborations with academic and industry partners have driven innovations in semiconductor device fabrication and performance optimization. He has published over 50 peer-reviewed articles in top-tier journals like IEEE Transactions on Electron Devices and Journal of Lightwave Technology , focusing on semiconductor materials, device physics, and high-frequency electronics.

• Materials Engineering
• Electrical and Electronic Engineering
• Nanotechnology
• +3 more

Anthony Holland is a Professor in the School of Engineering at RMIT University, specializing in semiconductor materials and device fabrication. His research focuses on thin film technology, microfabrication, and electrical contacts for advanced materials like Ge, SiC, and InP-based heterostructures. He has pioneered work on functional oxide thin films and nanostructured layers. Key research interests include semiconductor test structures, microelectronics, and the development of novel materials for electronics and sensing applications. Holland has supervised over 15 research projects, including studies on piezoelectric materials, gallium oxide semiconductors, and biosensors for chronic disease management. Recent publications highlight advancements in gallium oxide thin films for UVC sensing, quantum physics-based models for ohmic contacts, and atomically thin oxides derived from bismuth liquid metal. His work bridges fundamental materials science with applied engineering solutions. Supervision: 15+ active projects in semiconductor materials, thin films, and device fabrication. Grants & Industry Links: Engaged with industry through The Vacuum Society of Australia (past presidency).

Hussam AmrouchView profile

Professor

• AI Hardware Acceleration
• Emerging Nanoelectronics
• Cryogenic Circuits
• +4 more

Prof. Hussam Amrouch is a Full Professor of AI Processor Design at the Technical University of Munich (TUM), leading the TUM School of Computation, Information and Technology. His research focuses on ultra-efficient embodied AI, reliable designs in emerging technologies, and cryogenic circuits for quantum computing. He holds a Dr.-Ing. from Karlsruhe Institute of Technology (2015, Summa cum Laude) and previously led the "Dependable Hardware" group at KIT and the Chair of Semiconductor Test and Reliability at University of Stuttgart. He is affiliated with Munich Quantum Valley (MQV) and Munich Institute of Robotics and Machine Intelligence (MIRMI). Research interests include ferroelectric FETs, in-memory computing, cryogenic electronics, and neuromorphic systems. Key achievements include 10× HiPEAC Paper Awards, 3× DAC/DATE best paper nominations, and pioneering work on FeFET-based AI accelerators. His work bridges nanoelectronics with AI, addressing challenges in energy efficiency, reliability, and quantum integration. Publications span cutting-edge topics like cryogenic FinFETs, hyperdimensional computing, and monolithic 3D integration. He has developed novel testing methodologies, self-aware silicon systems, and energy-efficient architectures for edge-AI. Current projects explore cryogenic circuit design, radiation-resistant FeFETs, and carbon-efficient 3D neural networks. His awards reflect contributions to high-performance and embedded architectures. Research groups under his leadership focus on device-level innovations and system-level integration of emerging technologies. He actively contributes to interdisciplinary initiatives at MQV and MIRMI, advancing quantum computing and AI hardware frontiers.

Roel BaetsView profile

Professor

• Silicon Photonics
• Photonic Integrated Circuits
• Optical Sensors
• +4 more

Roel Baets is a Professor at Ghent University's Department of Information Technology (INTEC), affiliated with the Faculty of Engineering and Architecture. He leads research in silicon photonics, photonic integrated circuits, and their applications in biomedical engineering, environmental monitoring, and sensor technology. His work bridges academic and industrial collaboration through platforms like ePIXfab and Imec. Key roles include leading the Photonics Research Group and serving as a Fellow of the Optical Society (OSA) and IEEE Photonics Society. His research focuses on developing innovative photonic sensors (e.g., laser Doppler vibrometers, optical fiber Bragg sensors) and advancing heterogeneous integration techniques. Recent projects include clinical validation of cardiovascular monitoring systems and non-contact photoacoustic imaging. He also explores sustainable photonics solutions and environmental applications, such as solar radiation impact studies and CO₂ sensing. Notable achievements include pioneering work in micro-transfer printing for III-V/Si photonics and developing the Turbidimeter for low-resource healthcare settings. His awards reflect his contributions to photonics' theoretical and applied advancements, emphasizing interdisciplinary applications in medicine and sustainability.

Robert WilleView profile

Professor

• Design Automation
• Quantum Computing
• Computer Science
• +7 more

Prof. Dr. Robert Wille is a Full Professor at the Technical University of Munich (TUM) in the School of Computation, Information and Technology and Chief Scientific Officer at the Software Competence Center Hagenberg GmbH . He leads the Chair for Design Automation , focusing on automatic methods for complex system design in conventional and future technologies. Studied Computer Science (Diploma) at the University of Bremen (2002-2006) Doctorate (summa cum laude) from the University of Bremen (2009) His research spans quantum computing , microfluidic biochips , field-coupled nanotechnologies , and reversible circuits , with applications in machine learning , artificial intelligence , and cyber-physical systems . Recent work includes quantum circuit verification, radar-camera fusion, and silicon dangling bond logic optimization. Robert Wille has received prestigious awards such as the ERC Consolidator Grant , Google Research Award , and Distinguished Professor appointment . He serves as Associate Editor for journals like IEEE TCAD and Springer LNCS, and has chaired conferences including DATE and ICCAD.

Julián García FernándezView profile

Visiting Professor

• Semiconductor Physics
• Machine Learning
• Solid-State Physics
• +3 more

Julián García Fernández serves as a Visiting Professor at the University of Santiago de Compostela, based in Laboratory S2. His contact details include email: julian.garcia.fernandez2@usc.es and phone: +34 881816392. His primary research interests include: Semiconductor Physics Machine Learning Solid-State Physics Microelectronics Device Physics Computational Physics Dr. García Fernández's recent work demonstrates a focus on applying machine learning to semiconductor device simulation (TCAD) and thermal management. He has developed tools such as MLFoMpy for post-processing semiconductor data and novel workflows for optimizing cooling devices using solid-state physics principles. His research addresses challenges in ultra-scaled transistor technologies and device fluctuations, bridging computational methods with experimental physics. He is affiliated with Laboratory S2 at the University of Santiago de Compostela, which supports advanced research in semiconductor technologies and device physics through interdisciplinary collaboration.

Natalia Seoane IglesiasView profile

Associate Professor

• Semiconductor Device Simulation
• Nano-Device Variability
• Parallel and Distributed Computing
• +3 more

Natalia Seoane Iglesias serves as an Associate Professor in the Department of Applied Physics at the University of Santiago de Compostela's College of Physics. Her research integrates semiconductor device physics with high-performance computing to address challenges in next-generation electronics and energy conversion systems. B.Sc. in Physics, University of Santiago de Compostela (Spain) Ph.D. in Physics, University of Santiago de Compostela (2007) Postdoctoral research: University of Glasgow (2007-09), University of Edinburgh (2011), Swansea University (2013-15) Her research focuses on semiconductor device simulation , nanoscale variability analysis , and laser power conversion systems . She develops advanced computational tools combining 3D finite-element modeling with machine learning techniques to optimize device performance. Current projects target ultra-high efficiency (>80%) SiC-based laser converters for space applications and statistical variability studies in sub-10nm transistor architectures. Her publication portfolio reveals strong trends in machine learning-enhanced TCAD and high-concentration photovoltaics . Recent work demonstrates how vertical epitaxial heterostructures with SiC/GaN materials can overcome traditional efficiency barriers in wireless power transfer systems, while her nanoscale variability studies provide critical insights for future CMOS scaling. Key scientific contributions include: Development of MLFoMpy for semiconductor data post-processing Novel Pelgrom-based predictive models for device variability Breakthrough laser power converter architectures exceeding 80% efficiency Comprehensive studies of metal grain effects in nanosheet FETs She leads the rePowerSiC project (2024-2028) developing space-qualified laser power systems and contributes to multiple EU-funded initiatives in high-performance computing. Her team employs advanced simulation frameworks including VENDES and Silvaco Atlas for device characterization, with applications ranging from satellite power systems to refinery monitoring drones.

Loic TheolierView profile

Associate Professor

• Microelectronics Reliability
• Power Electronics
• Semiconductor Devices
• +5 more

Loic Theolier is an Associate Professor at University of Bordeaux specializing in microelectronics reliability within the IMS Bordeaux research laboratory (Laboratoire de l'intégration, du matériau au système). He is affiliated with the College of Science and Technology's Department of Electrical Engineering, where he leads research in the RELIABILITY group with specific team assignments to RIAD and WBG. His work focuses on the reliability of power semiconductor devices, particularly addressing failure mechanisms under various stress conditions. Dr. Theolier's research interests center on microelectronics reliability, power electronics, and semiconductor device physics. His work examines aging mechanisms in power devices, mechanical stress analysis during operation, and thermal management challenges in high-power applications. He has developed expertise in electro-thermo-mechanical modeling of SiC MOSFET transistors, Deep Trench Termination diodes, and GaN-based high-electron-mobility transistors (HEMTs), with particular attention to short-circuit events and high-temperature operation. His research combines experimental characterization with advanced numerical simulation techniques to predict device failure and improve reliability. Analysis of his publication record reveals a strong focus on reliability challenges in next-generation power semiconductors, with recent work examining SiC MOSFETs under short-circuit conditions, high-temperature reliability testing of GaN devices, and innovative approaches to high-voltage termination structures. His research spans both fundamental device physics and practical engineering applications, with increasing attention to aerospace and automotive power electronics requirements. Dr. Theolier has contributed to educational initiatives in engineering pedagogy, including peer tutoring programs for first-year students and laboratory-based research initiation projects for microelectronics students. His work demonstrates a commitment to both advancing reliability science and developing effective teaching methods in electrical engineering education. He is actively involved in the RIAD and WBG research teams at IMS Bordeaux, collaborating with multiple institutions including CNRS and Institut Polytechnique de Bordeaux. His laboratory work focuses on accelerated aging tests, mechanical stress characterization, and failure analysis of power electronic components using advanced simulation and experimental techniques.

Krzysztof IwanView profile

Assistant Professor

• Power Electronics
• Computer Simulation
• Modeling
• +4 more

Dr. Krzysztof Iwan is an Assistant Professor at the Department of Power Electronics and Electrical Machines within the Faculty of Electrical and Control Engineering at Gdańsk University of Technology. His office is located in Building A, room EM-214, and he can be contacted via email at krzysztof.iwan@pg.edu.pl or by phone at +48 58 347 1363. His research spans several key areas in electrical engineering and biomedical applications: Power Electronics: Converter systems, semiconductor device modeling, and drive technologies Simulation & Modeling: Development and application of simulation tools like TCAD and Saber Electromagnetic Compatibility: EMI propagation, filtering, and suppression techniques Biomedical Engineering: Surgical simulation for hernia repair and medical visualization Energy Quality: Analysis of harmonic distortions in power networks His publications demonstrate a consistent focus on computational modeling approaches to solve complex engineering problems. Recent work shows an interdisciplinary trend combining power electronics with biomedical applications, particularly in surgical simulation. The majority of his publications involve simulation-based research of power electronic systems and electromagnetic compatibility issues. Dr. Iwan is an active member of the Department's research team which focuses on: Modeling, design and simulation of power electronic converters Control and diagnostics of power electronic converters Electromagnetic compatibility of converters and electrical drives Quality of electrical energy Modeling and diagnostics of electrical machines and transformers Design of piezoelectric sensors and motors CAD and CAE techniques for power electronics