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Suman DattaView profile

Professor

• Semiconductor Devices
• Nanotechnology
• VLSI Systems
• +7 more

Suman Datta is a Professor at the Georgia Institute of Technology , holding the Joseph M. Pettit Chair in Advanced Computing and Georgia Research Alliance Eminent Scholar titles. He has a joint appointment with the School of Materials Science and Engineering. Education : B.Tech in Electrical Engineering from IIT Kanpur; Ph.D. in Electrical and Computer Engineering from the University of Cincinnati. Prior Appointments : Stinson Endowed Chair Professor of Nanotechnology at University of Notre Dame (2015–2022); Professor at Penn State (2007–2015); Intel Corporation (1999–2007) in Advanced Transistor Group. Research Interests : His work focuses on high-performance heterogeneous computing using advanced CMOS and beyond-CMOS semiconductors. Key areas include ferroelectric field-effect transistors (FeFETs) , cryogenic computing , in-memory computing , and brain-inspired computing . He explores materials like ferroelectric gate stacks , insulator-to-metal phase transition oxides , and high-mobility oxides for next-generation compute architectures. Recent Article Trends : His group’s publications emphasize BEOL-compatible oxide transistors , negative capacitance , radiation-resilient devices , and machine learning-aided modeling . Subfields include low-voltage memory , 3D Ising machines , dynamic logic at cryogenic temperatures , and monolithic integration of power delivery systems. Scientific Awards : IEEE Fellow (2013) for contributions to transistor technologies NAI Fellow (2016) for societal impact via patents Intel Achievement Award (2003) for high-k/metal gate CMOS Intel Logic Technology Quality Award (2002) for Tri-gate transistors SEMI Award (2012) for high-k dielectrics Penn State Outstanding/ Premier Research Awards (2012, 2015) Advising & Grants : He has mentored students like Wriddhi Chakraborty , Khandker Akif Aabrar , and Sourav Dutta . His research is funded by SRC , DARPA , and NSF , including leadership of the ASCENT and EXCEL centers. Labs & Collaborations : Datta directs the STAR Lab at Georgia Tech, which specializes in atomistic modeling , nanofabrication , and compact model development . The lab collaborates with industry giants like Intel , Micron , and IBM through the ASCENT center.

• Organic Electronics
• Photovoltaics
• Material Science
• +3 more

Evelyne Knapp is a Researcher at the ZHAW School of Engineering, Zurich University of Applied Sciences, within the Organic Electronics & Photovoltaics research focus area. Her work centers on advanced materials science, semiconductor physics, and machine learning applications in energy systems. She has led major projects such as 'Uncertainty quantification in ML Prediction for PV Quality Assurance' and contributed to innovations in perovskite solar cell optimization, organic semiconductor characterization, and device simulation models. Her research interests span photovoltaic technologies, charge transport phenomena, and optoelectronic device development. Key areas include: Perovskite solar cell performance analysis and degradation mechanisms Machine learning-driven parameter extraction for semiconductor materials Electro-thermal modeling of organic light-emitting devices Frequency-domain analysis of large-area solar cells Knapp's publications (over 30 peer-reviewed articles) demonstrate expertise in device simulation, material characterization, and interdisciplinary approaches merging computational methods with experimental data. Recent work highlights include: Advancing ML techniques to identify limiting parameters in perovskite solar cells Developing inverse models for solar cell parameter estimation Quantifying charge transport dynamics in organic semiconductors Her contributions have been presented at leading conferences including the IEEE Photovoltaic Specialists Conference and the Society for Information Display Symposium.

Amit Ranjan TrivediView profile

Associate Professor

• Artificial Intelligence
• Hardware Security
• Nano-robotics
• +3 more

Amit Ranjan Trivedi is an Associate Professor in the Department of Electrical and Computer Engineering at the University of Illinois at Chicago (UIC). He completed his B.Tech. and M.Tech. at the Indian Institute of Technology (IIT) Kanpur (2003-2008), where he received an Academic Excellence Award, and earned his Ph.D. at Georgia Institute of Technology (Georgia Tech) from 2010 to 2015. His research focuses on Artificial Intelligence (AI) at the edge , Hardware Security , and Nano-robotics , with an emphasis on low-power and neuromorphic computing using emerging technologies like Tunneling field-effect-transistors and magneto-tunneling junctions. Trivedi's publications reveal a strong interdisciplinary approach spanning VLSI Systems , Neural Networks , Nanotechnology , and Embedded Systems . His work addresses challenges in device authentication , energy-efficient AI , and nonvolatile memory , often leveraging nanoscale phenomena for novel applications. NSF CAREER Award (2021): Robust and Ultra-low-power Spatial Intelligence Sigma Xi Best PhD Dissertation (2015) IEEE Electron Device Society Fellowship (2014) Academic Excellence Award, IIT Kanpur (2005) At UIC, he has secured the College of Engineering Seed Funding award and the Phase-I Chancellor’s Proof-of-Concept award. His prior roles included research internships at IBM T.J. Watson Research Center (2012) and Intel’s Circuit Research Lab (2014), following his tenure at IBM Semiconductor Research and Development Center (2008-2010).

• Quantum Computing
• Superconductivity
• Quantum Optics
• +4 more

Per Delsing is a full professor at Chalmers University of Technology since 1997, leading research in quantum technology, superconductivity, and quantum information science. He focuses on quantum properties of superconducting devices, quantum optics on chip, and quantum computing with superconducting qubits. His work includes studying interactions between artificial atoms and microwave photons/phonons via surface acoustic waves (SAWs). He teaches superconductivity and low-temperature physics. Affiliations include the Royal Swedish Academy of Sciences and Royal Academy of Engineering Sciences. Awards include Distinguished Professor (Swedish Research Council), APS Fellowship, and Wallenberg Scholar. Key research areas span quantum acoustics, nonclassical microwave states, and parametric amplification for qubit readout. Projects like WACQT (Wallenberg Centre for Quantum Technology) highlight his leadership in building quantum technology infrastructure. Over 135 publications demonstrate contributions to quantum measurement, Casimir effect, and single-electron transistor physics.

Aneta P. PrijicView profile

Professor

• Microelectronics
• Energy Harvesting
• Wireless Sensor Networks
• +7 more

Aneta P. Prijic is a Full Professor at the Faculty of Electronics in Niš, University of Niš, Serbia, affiliated with the Department of Microelectronics and Microsystems. She completed her academic training at the same institution, earning her PhD in 2007 in Microelectronics and Microsystems. Her research focuses on energy harvesting, microelectronics, and sensor systems. Research Interests: Her work centers on energy harvesting technologies—particularly thermal and photovoltaic—for wireless sensor nodes. She investigates reliability in power semiconductor devices, designs PCB-based sensors, and develops low-power systems for industrial and telemetry applications. Her expertise spans microelectronics, device modeling, and sustainable embedded systems. Publication Trends: Her recent publications emphasize energy efficiency in sensor networks, with a strong focus on thermoelectric and photovoltaic harvesting under low-power conditions. She also contributes to semiconductor reliability (e.g., NBTI analysis) and educational innovations in PCB design. Her work appears in IEEE, Elsevier, and MDPI journals, reflecting interdisciplinary contributions in electronics and engineering. Scientific Contributions: Co-author of 4 national patents, 1 international patent, and 13 technical solutions Active member of the Program Committee of the ETRAN Society (Microelectronics and Optoelectronics section) Participant in 3 national and international research projects Advising and Grants: While specific students are not listed, her collaborative publications suggest mentorship of junior researchers. She is actively involved in funded research projects focusing on energy harvesting and microelectronic systems, contributing to technological innovation and education. Labs and Teams: She is affiliated with research groups at the Faculty of Electronics in Niš focused on microelectronics, energy systems, and sensor technologies. Her work is integrated into national and international collaborations, particularly in the development of reliable, low-power electronic systems.

Juan BisquertView profile

Professor

• Photovoltaic Materials
• Clean Energy Technologies
• Nanomaterials
• +5 more

Juan Bisquert is a Professor of Applied Physics and Director of the Institute of Advanced Materials (INAM) at Universitat Jaume I in Castelló, Spain. He leads the Active Materials and Systems (AMSY) Research Group, focusing on advanced materials for clean energy, particularly photovoltaic devices and hybrid perovskites. His work integrates physical modeling and measurement techniques to understand charge transport, chemical reactions, and semiconductor properties in energy systems. His research interests span nanomaterials, semiconductor physics, and impedance spectroscopy, with recent emphasis on memristive systems and neuromorphic engineering. He has authored over 400 publications, including a seminal book on solar energy physics, and holds an h-index of 98. Bisquert is Executive Editor for Europe of the Journal of Physical Chemistry Letters and a Highly Cited Researcher (2014–2020). Beyond academia, he founded nanoGe Conferences and the literary magazine Descriu , and authored speculative fiction. His research group's contributions to perovskite solar cells and memristor modeling have significantly impacted energy and neuromorphic technologies. Recent work addresses hysteresis mechanisms in perovskites, resistive switching in memristors, and neuromorphic applications of nanofluidic systems. He collaborates internationally and chairs Fundació Scito, fostering scientific and cultural initiatives.

Supriyo DattaView profile

Professor

• Spintronics
• Quantum Computing
• Probabilistic Computing
• +3 more

Supriyo Datta is the Thomas Duncan Distinguished Professor of Electrical and Computer Engineering at Purdue University, affiliated with the School of Electrical and Computer Engineering. His work bridges physics and computing, focusing on nanoscale devices and quantum phenomena. He pioneered spintronics and proposed spin transistors, foundational to modern spin-based electronics. His research on negative capacitance aims to extend Moore’s Law, while recent work explores probabilistic computing via p-bits, addressing complex problems at room temperature. Research Interests: Probabilistic Computing Spintronics and Quantum Transport Nanoelectronics and Device Simulation Unconventional Computing Architectures He authored seminal books like Quantum Transport: Atom to Transistor , which underpin semiconductor device modeling. His NEGF formalism is industry-standard for nanotransistor design. Datta’s contributions earned him NAE membership and global recognition in physics and engineering. Awards: Elected to the National Academy of Engineering (NAE) His group has advised over 50 PhD students, advancing fields from molecular electronics to autonomous probabilistic hardware. Current projects include p-bit-based Ising machines and spin-inspired quantum emulation systems.

• Compound Semiconductors
• High Frequency Electronics
• Power Electronics
• +6 more

William Stanchina is a Professor in the Department of Electrical and Computer Engineering at the University of Pittsburgh’s Swanson School of Engineering. His research focuses on semiconductor devices, including compound semiconductors, high-frequency electronics, and power electronics. He has developed novel heterojunction devices and transitioned R&D into production for government and commercial applications. His work includes wide bandgap semiconductors for smart grid and biomedical instrumentation, as well as nanowire growth for device implementation. Dr. Stanchina holds a PhD and MSEE in Electrical Engineering from the University of Southern California (1973–1978) and a BS in Electrical Engineering from the University of Notre Dame (1971). His research emphasizes semiconductor materials growth, IC fabrication processes, and device characterization. He has established an electronic device measurement capability at Pitt to extract equivalent circuit models for semiconductor devices. His publications span GaN-based power converters, nanofabrication techniques, and optoelectronic pathogen detection systems. Recent work explores high-power-density modular converters and linear models for wide bandgap semiconductor circuits.

Steven NoyceView profile

Adjunct Assistant Professor

• Nanomaterial Sensors
• Biosensors
• Nanoelectronics
• +4 more

Steven Noyce serves as an Adjunct Assistant Professor in the Department of Electrical and Computer Engineering at Duke University while concurrently leading two startups: Tyrata (as Senior Scientist) and Versametrics (as CEO). His academic-industry hybrid career focuses on translating nanomaterial research into practical sensor applications for medical diagnostics and IoT systems, with particular emphasis on carbon nanotube and 2D material-based devices. Education B.S. in Physics, Brigham Young University, 2015 M.S. in Electrical and Computer Engineering, Duke University, 2020 Ph.D. in Electrical and Computer Engineering, Duke University, 2020 Research Focus Noyce's work investigates how nanomaterials like carbon nanotubes and molybdenum disulfide respond to environmental changes and charge perturbations. His research spans fundamental material characterization to applied sensor development, with significant contributions in sensor stability optimization, printed electronics fabrication, and high-surface-area microstructures. This trajectory demonstrates consistent progression from laboratory studies to commercial implementations in medical diagnostics and industrial monitoring. Publication Analysis His 14 publications (2015-2024) reveal evolving expertise from foundational carbon nanotube/MEMS work to sophisticated 2D material sensors. Early research (2015-2018) established methods for high-aspect-ratio fabrication and bias stress analysis, while recent work (2019-2024) focuses on medical applications including point-of-care coagulation testing and biomarker detection. A unifying thread is the development of reliable, printable nanomaterial sensors for real-world deployment in healthcare and transportation safety. Entrepreneurial Leadership Noyce co-founded CattleGuard for agricultural IoT solutions and currently drives Tyrata's tire tread monitoring technology to prevent road accidents. Through Versametrics, he extends his PhD work on automated electrical measurement systems. His dual roles in academia and industry exemplify effective technology transfer, with Duke University serving as the incubation ground for multiple commercial ventures.

Ngoc Duc AuView profile

Researcher

• Electrical Engineering
• Electronic Engineering
• Information Engineering
• +4 more

Ngoc Duc Au is a Postdoctoral Researcher in the Department of Electromagnetics and Nanoelectronics at Lund University. His work focuses on innovative wireless circuits and devices for sustainable satellite and wireless communication systems, contributing to UN Sustainable Development Goals through environmental impact reduction. Current role: Postdoctoral Researcher at Lund University Expertise: RF circuits, mm-wave, Wireless Power Transfer SDGs addressed: Energy sustainability, Environmental impact reduction Research interests include high-efficiency rectifiers, microwave power transmission, and nanoelectronics for energy harvesting. His publications highlight advancements in dynamic power range rectifiers, broadband microwave systems, and negative impedance circuit design. Recent projects include DYNAMISM (2024–2025), supported by the Royal Physiographic Society in Lund. Collaborations span international institutions, with a focus on semiconductor engineering and renewable energy applications.

Luminita M. HRIBView profile

Researcher

• Ferroelectric materials
• Magnetoelectric heterostructures
• Materials science
• +4 more

Dr. Luminita M. HRIB is a Scientific Researcher III at the National Institute of Materials Physics (NIMP), working in the Laboratory of Complex Heterostructures and Multifunctional Materials. She has been with NIMP since 2011 and previously served as a Research Assistant at the Faculty of Physics, Alexandru Ioan Cuza University of Iasi from 2007-2008, and as a Technician at the National Institute of Research & Development for Technical Physics in Iasi from 2006-2007. She also completed a study stage at the Laboratoire de Physique des Lasers, Atomes et Molécules at Université Lille 1 in France. Education: PhD in Physics from Alexandru Ioan Cuza University of Iasi (2011) MSc in Physics (Physics of advanced materials. Nanotechnologies) from Alexandru Ioan Cuza University of Iasi (2009) BSc in Engineering Physics from Alexandru Ioan Cuza University of Iasi (2007) Dr. HRIB's research focuses on the preparation and electrical characterization of ferroelectric and magnetoelectric heterostructures. Her work spans multiple disciplines including materials science, solid-state physics, and nanotechnology. She investigates the electrical properties of epitaxial thin films, particularly Pb(Zr,Ti)O 3 -based systems, examining how interface effects, polarization orientation, and structural properties influence functional behavior. Her research has important implications for applications in non-volatile memory, memcomputing, and multiferroic devices. Analysis of her 15 most recent publications reveals a consistent focus on ferroelectric and multiferroic heterostructures, with particular attention to interfacial phenomena, polarization effects, and electrical characterization. Her work demonstrates expertise in advanced characterization techniques including photoelectron spectroscopy, capacitance-voltage measurements, and structural analysis. The research shows progression from fundamental studies of polarization mechanisms toward applications in novel electronic devices. Dr. HRIB has coordinated one national project (MC694/2018 - UEFISCDI) and co-authored a book chapter with John Wiley & Sons (2016). She is also a co-author of one OSIM patent (A 2017 00109). With 28 publications in Web of Science journals, an h-index of 10, and 437 citations (excluding self-citations), Dr. HRIB has established herself as an active researcher in the field of functional materials. Her work primarily centers on complex heterostructures with potential applications in next-generation electronic devices.

• Silicon Carbide Power Electronics
• Wide Band-gap Semiconductor Devices
• Semiconductor Physics
• +7 more

Dr. Daniel Haasmann is a Lecturer in the School of Engineering and Built Environment, specifically within the Electrical and Electronic Engineering department at Griffith University, Australia. He is also a member of the Queensland Quantum and Advanced Technologies Research Institute (QUATRI) since 2025 and was previously affiliated with the Queensland Micro and Nanotechnology Centre from 2017 to 2023. Dr. Haasmann's educational background includes: PhD in Microelectronic Engineering from Griffith University (2015) B.Eng (1st Class Hons) in Microelectronic Engineering from Griffith University (2008) With over 12 years of specialized experience in semiconductor physics, Dr. Haasmann focuses on silicon carbide power electronic devices. His research centers on wide band-gap semiconductor devices, particularly silicon carbide MOSFETs and Schottky barrier diodes. He possesses extensive expertise in gate oxides, electrical characterization of SiC MOS devices, and cleanroom fabrication techniques. His work bridges fundamental semiconductor physics with practical power electronics applications, contributing to more efficient energy conversion systems. Analysis of Dr. Haasmann's publication record reveals a consistent research trajectory focused on silicon carbide semiconductor technology. His work spans from fundamental material science investigations of SiC interfaces to practical power conversion applications. A significant portion of his research addresses the characterization and mitigation of near-interface traps in SiC MOS devices, which is critical for improving device performance and reliability in high-power applications. His recent publications demonstrate growing collaboration networks and increasing impact in the semiconductor device community. Dr. Haasmann has secured competitive research funding, including the 'Advanced Silicon Carbide Transistor Prototype for Highly Efficient and Reduced Cost Power Conversion Systems' grant from the Department of Education (July 2024-July 2025), part of Australia's Economic Accelerator program with a total project value of $449,204. As an academic supervisor, Dr. Haasmann currently serves as Principal Supervisor for research on 'Surge Current Comparison of Homogeneous and Merged PiN SiC Schottky Diodes' and Associate Supervisor for 'Development of SiC MOSFET with enhanced mobility for high power and high frequency switching applications.' He previously supervised Mayank Chaturvedi's doctoral research on 'Characterization of Active Near Interface Traps in 4H-SiC MOS Devices.' Dr. Haasmann is actively involved with QUATRI and contributes to Griffith University's research initiatives aligned with Sustainable Development Goal 3 (Good Health and Well Being), particularly through applications in biomedical therapy using silicon carbide electronics.

• Analog Integrated Circuits
• Gm-C Filters
• MOSFET Characteristics
• +3 more

Dr. Neculai Cojan is an Associate Professor at the Technical University of Iasi (TUIASI), Department of Electronics and Telecommunications. His academic role includes teaching analog integrated circuits and conducting research in advanced electronic circuit design. He holds a Ph.D. in Engineering and has been actively involved in industry-sponsored projects, such as the FSM project collaboration mentioned in his work. His research focuses on analog circuit design, particularly in Gm-C filters, MOSFET-based amplifiers, and oscillator development. Notable contributions include novel implementations of oscillation-based testing methodologies and variable gain amplifier architectures. His work frequently explores integration challenges in CMOS technologies and high-frequency signal processing. Recent publications (2010-2011) emphasize structured approaches to filter design, electrically controlled components, and top-down project methodologies. His research bridges theoretical analysis with practical applications in both academic and industrial contexts. Dr. Cojan’s technical expertise is further evidenced by his involvement in circuit testing innovations and the development of industry-relevant solutions. Despite no listed awards, his sustained output in high-impact circuit design areas reflects significant contributions to the field of analog electronics.

Adrian M. IonescuView profile

Professor

• Nanoelectronic devices
• Nanotechnology
• Steep-slope tunnel FETs
• +7 more

Adrian M. Ionescu is a Full Professor at the Department of Electrical Engineering, Ecole Polytechnique Fédérale de Lausanne (EPFL). He directs the Nanoelectronic Devices Laboratory (Nanolab) and contributes to the Doctoral Program in Microsystems and Microelectronics. His research bridges nanoelectronics, quantum computing, and biomedical sensing. B.S./M.S. in Electronics, Politehnica University Bucharest Ph.D. in Microelectronics, Politehnica University Bucharest Ph.D. in Physics of Semiconductor Devices, INPG Grenoble Research spans energy-efficient nanoelectronics , steep-slope switches , quantum computing qubits , edge AI sensors , and lab-on-skin wearable systems . Key projects include ERC Advanced Grant Milli-Tech for millivolt technology, DIGIPREDICT for digital twins in healthcare, and Sinergia NeMO for memristors. Recent publications focus on 2025 VO 2 phase-change devices, 2024 graphene biosensors, and 2023 III-V tunnel FETs. Awards include the 2024 IEEE Cledo Brunetti Award , 2017 IEEE George Smith Award , and IBM Faculty Award (2013) . As EPFL doctoral program director, he has guided 10+ PhD students in biosensing, ferroelectric FETs, and neuromorphic systems.

• Semiconductor Device Modeling
• Field Effect Transistors (FETs)
• Radiation Effects on Integrated Circuits
• +3 more

Jean-Michel Sallese is a Senior Researcher at École polytechnique fédérale de Lausanne (EPFL), affiliated with multiple units including the Group of Semiconductor Devices (GR-SCI-IEL) , SEL-ENS , and EDMI-GE . His work focuses on semiconductor device modeling, biosensors, radiation effects in electronics, and microfluidic systems. Research Areas: Field Effect Transistor (FET) physics and modeling Radiation-induced soft errors in integrated circuits High-energy particle solid-state sensors Nanowire and junctionless FET biosensors Microfluidic mixer modeling Recent publications highlight advancements in ISFET biosensors , radiation-hard CMOS , and negative capacitance FETs , with applications spanning medical diagnostics, high-energy physics, and industrial monitoring. He supervises PhD students and co-developed the EDLAB initiative for device modeling. Teaching includes core electronics courses and specialized topics like Modeling Micro-/Nano-Field Effect Devices . No scientific awards are explicitly mentioned in the provided texts.