Prof. Dr.-Ing. Friedel Gerfers serves as the Einstein-Professor for Mixed Signal Circuit Design at the Technical University of Berlin since 2019, and has led the Mixed Signal Circuit Design (MSC) group since 2015. Prior to academia, he held industry roles as Design Manager at Apple Inc. (2014-2015) and Technical Director at Integrated Device Technology (IDT) (2012-2014). High-Speed Integrated Circuits (GS/s range) Energy-Efficient RF/Transceiver Architectures Silicon Photonics Applications Ultra-Low-Power Sensor Readout Systems His research focuses on mixed-signal calibration algorithms , semiconductor design flows , and FinFET technology down to 14nm. Recent work emphasizes 22nm FD-SOI CMOS for high-performance applications. Key publication trends include: High-Speed ADC/DAC designs (12-18.5 GS/s) Advanced RF sampling techniques Error correction in current-steering DACs Optical interconnects (VCSEL-based systems) Current affiliations: Technical University of Berlin IEEE Conference Publications German Microwave Conference (GeMiC) Collaborations
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Kari Halonen serves as Professor in the Department of Electronics and Nanoengineering at Aalto University School of Electrical Engineering. Leading the Kari Halonen Group, his research focuses on ultra-low-power electronics for energy-constrained applications including wireless sensor networks, wearable systems, and implantable medical devices. His work bridges the Internet of Everything with personalized health technologies through advanced signal acquisition and power management solutions. Research interests center on sensor electronics and energy harvesting with emphasis on ultra-low-power analog/digital implementations for wireless sensor devices. Key application areas include personalized health monitoring through advanced user interfaces and biomedical information acquisition. Current projects demonstrate practical implementations like the Gesture Sensor Interface Demonstrator for gaming applications and urine-powered sensor nodes for smart diapers. Recent publications (2024-2025) reveal strong focus on flexible electronics for biomedical applications, temperature-invariant circuits , and in-memory computing architectures . Work spans neuromorphic computing, printed energy harvesters, and RF-to-DC converters, consistently targeting sub-nW power consumption for batteryless systems. Major venues include IEEE Transactions journals, ISCAS, and FLEPS conferences. Scientific awards include: Beatrice Winner Award at IEEE Solid-State Circuits Conference (2002) Best paper award at Asian Conference on Millimeter-wave circuits and Technology (2007) Second best paper award at ECCTD Conference (2007) As primary advisor, Halonen supervises doctoral researchers including Gaurav Singh and Kazybek Adam. His group develops practical demonstrators like the Gesture Sensor Interface while advancing theoretical foundations in ultra-low-power circuit design. Current projects integrate printed electronics with biological energy harvesting, targeting commercialization through Aalto University's research portal. The Kari Halonen Group operates within Aalto's Department of Electronics and Nanoengineering, utilizing facilities in the TUAS-building at Maarintie 8, Espoo. Collaborations span biomedical researchers (Raimo Sepponen) and semiconductor experts across multiple institutions, with recent work appearing in IEEE IoT Journal and SN Computer Science.
Rob Maaskantمشاهده پروفایل
دانشیار
Rob Maaskant is an Associate Professor at Eindhoven University of Technology (TU/e) in the Electromagnetics group of the Electrical Engineering department. He also holds an associate professorship at Chalmers University of Technology in Gothenburg, Sweden, within the Antenna Group of the Electrical Engineering department. PhD (cum laude), TU/e (2010) MSc (cum laude), TU/e (2003) His research focuses on mm-wave antenna integration and packaging challenges, particularly addressing cross-talk effects and cavity resonance issues through hybrid circuit-wave modeling. He develops silicon-based Ka-band massive MIMO systems for 5G applications using BiCMOS technologies. Key projects include spatial power combiners and algorithmic radar architectures with energy-saving innovations. Recent publications highlight: 2024: Waveguide integration techniques for multi-channel amplifiers 2024: Contactless transitions with tolerance analysis 2022: Algorithmic radar power efficiency 2022: Spatial power combiner design 2022: Phased-array reflector antennas Scientific Recognition: NWO Vidi Grant (2016) Young Researcher Grant (VR, 2011) Marie-Curie Rubicon Fellowship (2010-2012) He has authored over 100 papers, holds 8 patents, and developed the CAESAR software for antenna array analysis. Collaborations include industry leaders NXP and Ericsson.
Robert Reed is a Professor of Electrical Engineering and Associate Chair of the Department of Electrical and Computer Engineering at Vanderbilt University's School of Engineering. His research focuses on understanding radiation effects in microelectronics, particularly Single Event Effects (SEEs), to improve radiation-hardened technologies for space and high-reliability applications. He holds a Ph.D., M.S., and B.S. in Electrical Engineering from Clemson University and East Tennessee State University, respectively. His work spans semiconductor devices, photonics, and materials science, with applications in space instrumentation and nuclear environments. Key research areas include radiation-induced degradation in power devices (e.g., SiC Schottky diodes), laser-induced transient effects in FinFETs, and space radiation environment modeling. He has contributed to the development of the SIRE2 toolkit for radiation vulnerability assessment and advanced climatology models. Reed's expertise also extends to photonics in extreme environments and the reliability of 3D-integrated circuits under ionizing radiation. His recent articles emphasize space-based electronics reliability, including lunar gravitational wave detectors and radiation-hardened lasers. Collaborations include the RadFxSat-2 mission to study FinFET microelectronics in orbit. He actively engages with the academic and aerospace communities through publications in top journals and conferences on radiation effects and reliability engineering.
Sam Palermo is Professor and J.W. Runyon Jr. Professor in the Department of Electrical and Computer Engineering at Texas A&M University's College of Engineering. He holds a Ph.D. from Stanford University and M.S./B.S. degrees from Texas A&M University. Palermo's research develops: High-speed electrical/optical interconnect circuits Clock generation/recovery systems (PLL/DLL/CDR) Variability-tolerant analog/mixed-signal ICs Energy-efficient wireline communications His publications demonstrate consistent innovation in integrated circuit design for optical communications, with recent work on silicon photonic transceivers, jitter-robust multicarrier systems, and radiation-hardened oscillators. Research bridges high-frequency circuit design with advanced photonics integration. Palermo has contributed to optical interconnect standards and developed testbeds for tera-scale computing interfaces. His work on CMOS-photonic integration has enabled high-bandwidth interconnects for data centers and HPC systems. He serves on technical committees for IEEE conferences including the International Solid-State Circuits Conference and Custom Integrated Circuits Conference (CICC).
- Integrated Circuits
- MEMS Sensors
- Low-Power Systems
- +۳ مورد دیگر
Seyed Hossein Miri Lavasani serves as an Assistant Professor in the Department of Electrical Engineering and Computer Science at Case Western Reserve University's Case School of Engineering. His office is located in Glennan 712, and he can be reached at seyedhossein.mirilavasani@case.edu or 216.368.4083. His educational background includes: PhD in Electrical and Computer Engineering from Georgia Institute of Technology (2010) MS in Electrical Engineering from Arizona State University (2003) BS in Electrical Engineering from Sharif University of Technology (2001) Miri Lavasani specializes in high-performance integrated circuits and systems with particular focus on low-power interface circuits for MEMS and sensors . His research bridges microelectronics and microsystems, emphasizing energy-efficient design for wireless and IoT applications. Recent work demonstrates expertise in CMOS RF circuits, MEMS oscillators, and ultra-low-power receiver architectures. His publication record includes 21 journal and conference papers with over 510 citations, primarily in IEEE venues like JMEMS, CICC, and CSICS. Research trends show consistent innovation in MEMS-CMOS integration, power optimization for wireless systems, and novel circuit techniques for sensor interfaces. Miri Lavasani maintains active research in microelectronics with emphasis on practical implementations for emerging technologies. His work demonstrates strong industry relevance through collaborations with semiconductor research groups and focus on manufacturable solutions in advanced process nodes.
- Electronics
- Semiconductor Devices
- CMOS Technology
- +۳ مورد دیگر
Tatjana Pešić-Brđanin is a Full Professor at the Department of Electronics, Faculty of Electrical Engineering, University of Banja Luka. Her research focuses on semiconductor device physics, SPICE modeling, and integrated circuit design, with applications in low-power CMOS systems and audio engineering. She holds a permanent academic position and actively contributes to microelectronics education through textbooks like Analog Integrated Circuits and Introduction to Electronics . Her research encompasses: Semiconductor device modeling (MOSFETs, FinFETs) SPICE simulations for radiation effects and circuit reliability Design of energy-efficient audio amplifiers (Class AB/D) Signal processing for speech intelligibility Publications (2012–2018) emphasize semiconductor device optimization, audio circuit efficiency, and low-voltage CMOS design, reflecting a blend of theoretical modeling and applied engineering. No awards, grants, or supervised students are documented in the source material.
Željko Osrečkiمشاهده پروفایل
پژوهشگر
- Radiofrequency Power Amplifiers
- Semiconductor Devices
- Horizontal Current Bipolar Transistor (HCBT) Technology
- +۳ مورد دیگر
Željko Osrečki is a Researcher at the Department of Electronics, Microelectronics, Computer and Intelligent Systems, Faculty of Electrical Engineering and Computing, University of Zagreb. He holds a degree from the Faculty of Electrical Engineering, Computer Science and Information Technology in Osijek (2014) and a subsequent qualification from the Faculty of Electrical Engineering and Computing in Zagreb (2016). His work focuses on advanced semiconductor technologies, particularly in radiofrequency power amplifiers using horizontal current bipolar transistor (HCBT) technology and optical detection applications. He was awarded the Dean’s Award for his contribution to quenching circuits for single-photon avalanche diodes. Željko Osrečki’s educational background includes: Bachelor’s/Master’s degree from Faculty of Electrical Engineering, Computer Science and Information Technology Osijek (2014) Advanced degree from Faculty of Electrical Engineering and Computing, Zagreb (2016) His research interests revolve around: Design and optimization of radiofrequency (RF) power amplifiers in HCBT technology Cryogenic performance analysis of semiconductor devices Development of high-performance semiconductor devices for wireless and optical detection applications Optimization of single-photon avalanche diode (SPAD) quenching circuits His publications span topics such as cryogenic measurements of RF devices, large-signal characterization of HCBT, and advancements in Doherty power amplifiers. Recent work includes load-pull analysis and optical crosstalk reduction techniques in SPAD arrays, reflecting his expertise in both RF engineering and photonics. Scientific Awards: Dean’s Award for team scientific work on “Design of quenching circuits for single-photon avalanche diodes” Current roles include contributions to the project “High-performance Semiconductor Devices for Wireless Circuit and Optical Detection Applications” led by Prof. Tomislav Suligoj. While no specific grant details are provided, his involvement in multiple projects highlights active participation in research funding initiatives. He is affiliated with the Laboratory for Micro and Nano Electronics, focusing on cutting-edge semiconductor and microelectronic research.
Jos J.G.M. van der Tol is an Associate Professor in the Electrical Engineering department at Eindhoven University of Technology (TU/e). He leads research in opto-electronic integration, photonic membranes, and magneto-optic devices. His work focuses on advancing telecom, datacom, and sensing technologies through photonic integrated circuits. He collaborates with TU/e’s Physics of Nanostructures group and leads the EU WIPE project integrating BiCMOS electronics with photonic circuits on indium phosphide. Van der Tol holds a PhD in Physics from Leiden University (1985). His career includes roles at KPN Research (telecom components) and TU/e since 1999. He has authored/co-authored over 200 publications and 26 patents in integrated optics and networks. His research ambitions include scaling photonic ICs and integrating electronic functionality for high-frequency solutions. Current projects emphasize magneto-optic device integration and energy-efficient transceivers. He supervises 27 academic works and contributes to sustainable development goals through advanced photonic technologies.
Jan Schöpfelمشاهده پروفایل
پژوهشگر
Jan Schöpfel is a Researcher in the Integrated Systems department at the Faculty of Electrical Engineering and Information Technology, Ruhr-Universität Bochum. His research focuses on advanced microwave and millimeter-wave systems, particularly in automotive radar technology, high-frequency integrated circuits, and SiGe-based solutions. He has contributed significantly to the development of compact, energy-efficient radar systems for automated driving applications, including innovations in power amplifiers, mixers, and phase-locked loops. His work spans topics such as harmonic radar for vulnerable road user detection, subharmonic mixing techniques, and inharmonic radar concepts for future automotive bands. Collaborations include projects on over-the-air synchronization for radar networks and low-phase-noise signal sources. He has published extensively in top journals like IEEE Transactions on Microwave Theory and Techniques and conferences such as the International Microwave Symposium (IMS). Key technical areas include SiGe BiCMOS technology, frequency multipliers, and MIMO antenna systems. His research addresses challenges in bandwidth optimization, power efficiency, and precision signal processing at millimeter-wave frequencies, with direct applications in next-generation automotive and 6G communication systems.
Michael Vogt is a Professor of Electronic Circuit Technology at the Faculty of Electrical Engineering and Information Technology (ETIT) at Ruhr University Bochum. His academic journey includes a PhD (2008) and habilitation (2016) in High-Frequency Technology. He leads research in microwave and radar systems, process measurement technology, and biomedical applications. Vogt's work spans academic roles, industry collaborations (e.g., Krohne Messstechnik GmbH), and international conference organization. He chairs the U.R.S.I. Commission A (Electromagnetic Metrology) and contributes to humanitarian projects like MEDICI in Colombia. Education: Dr.-Ing. (Ruhr-Universität Bochum, 2008), Dipl.-Ing. (Fachhochschule Bochum, 1995), Vocational training as Information Electronics Technician (1989–1992). Research focuses on radar systems, microwave sensors, and biomedical applications. Key projects include PAC4PT (process measurement systems) and PIMMS (micro-mass spectrometers). His work combines advanced signal processing, material characterization, and sensor design for industrial, medical, and humanitarian uses. Publications (2024–2000) emphasize radar innovations, microwave components, and biomedical applications. Collaborations include international projects in Colombia and interdisciplinary studies in plasma diagnostics and material science.
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.
Florian Vogelsang is a Researcher at the Ruhr University Bochum , affiliated with the Faculty of Electrical Engineering and Information Technology and the Integrated Systems department. His work focuses on high-frequency electronics, terahertz technology, and microwave circuit design. Research Interests: Microwave and terahertz signal generation Silicon Germanium (SiGe) and Indium Phosphide (InP) device integration Millimeter-wave radar systems and phased arrays High-efficiency RF circuits and frequency multipliers Compact and energy-efficient sensor modules Scientific Contributions: Over 15 publications (2016–2025) in IEEE journals and conferences Key work on 0.48 THz FMCW radar sensors and ultra-wideband transceivers
Dr. hab. inż. Wiesław Kordalski is an Associate Professor at the Department of Microelectronic Systems within the Faculty of Electronics, Telecommunications and Informatics at Gdańsk University of Technology. His academic career spans several decades, with documented teaching activities from at least 2002 through the 2024/2025 academic year. He maintains two institutional email addresses: wiekorda@pg.edu.pl and kord@eti.pg.edu.pl. His research interests focus on semiconductor device modeling, particularly MOS transistors, with emphasis on quasi-2D small-signal models, magnetic field sensors (MAGFETs), and parameter extraction methods. He has developed specialized expertise in non-quasi-static modeling of transistors for radio and microwave frequencies, with models verified up to 30 GHz. His work bridges theoretical modeling and practical implementation, addressing both fundamental semiconductor physics and engineering applications. Analysis of his publications reveals a consistent research trajectory centered on MOSFET modeling techniques, with particular focus on quasi-2D representations and non-quasi-static behavior. His work demonstrates progression from basic transistor modeling to more specialized applications like magnetic field sensors. The research shows strong methodological consistency, with recurring themes of physics-based modeling, experimental verification, and practical implementation considerations. Professor Kordalski teaches across multiple departments, primarily offering courses in Electronics, Electronic Circuits, and Electrical Engineering. His teaching portfolio includes courses for Mechanical Engineering, Mechatronics, and Medical and Mechanical Engineering programs, demonstrating interdisciplinary engagement. He has consistently taught these subjects since at least 2012, indicating substantial teaching experience and institutional commitment.
Professor Bernd Tillack is a leading researcher at the Leibniz Institute for Innovative Microelectronics (IHP) in Frankfurt (Oder), Germany, specializing in advanced semiconductor technologies and microelectronics innovation. His work bridges fundamental physics with practical applications in communications and sensing systems. His primary research domains include: Semiconductor Microelectronics BiCMOS Technology Silicon Photonics Terahertz Spectroscopy Millimeter-Wave Systems Integrated Circuit Design Professor Tillack actively leads multiple German Research Foundation (DFG) projects including 'Control of charge carrier dynamics in SOI waveguides', 'Bend-IT: Flexible wireless sensors', and 'THz-LoC II: Integrated Lab-on-Chip Terahertz Spectroscopy Platform'. His research demonstrates consistent focus on applying silicon-germanium BiCMOS technology to solve challenges in high-frequency communications and sensing applications. Key project types he manages: Research Groups (SOI waveguide dynamics) In-kind grants (Bend-IT wireless sensors) Priority Programs (THz-LoC spectroscopy) Collaborative Research Centers (silicon photonic I/O) His work exemplifies the IHP's mission to advance microelectronics for next-generation communication systems, with strong emphasis on translating theoretical concepts into tangible device implementations.