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Judith Driscoll is Professor of Materials Science at the University of Cambridge in the Department of Materials Science & Metallurgy. She holds the prestigious Royal Academy of Engineering Chair in Emerging Technologies and serves as a Visiting Staff Member at Los Alamos National Laboratory. As the founding Editor-in-Chief of APL Materials, she has significantly contributed to the materials science community. Dr. Driscoll's research focuses on Energy Efficient Oxide Materials for Information and Communications Technologies and energy devices. Her work spans the development of non-volatile memory, resistive switching devices, and ferroelectric materials for neuromorphic computing applications. She investigates oxide thin films for applications ranging from data storage to energy generation and conversion, with particular emphasis on creating more energy-efficient device technologies to handle the exponential growth of data-centric applications. Her recent publications demonstrate strong trends in developing novel oxide-based memory devices with improved energy efficiency, particularly for AI applications. The work shows significant progress in hafnium-zirconium oxide ferroelectrics, resistive switching mechanisms, and vertically aligned nanocomposite structures for enhanced device performance. These innovations address critical challenges in reducing the unsustainable energy demands of modern computing, particularly for artificial intelligence systems. Fellow of the Royal Academy of Engineering Fellow of the Materials Research Society Fellow of the American Physical Society Fellow of IOM3, IOP, and Women Engineers Society Fellow of the American Academy of Arts and Sciences Recipient of ERC Advanced Grant Editor-in-Chief of APL Materials Dr. Driscoll leads a vibrant research group that has secured significant funding including her Royal Academy of Engineering Research Chair, an ERC Advanced Grant, and an ECCS-EPSRC grant in collaboration with researchers from the USA. She has founded the Cambridge Centre for Neuromorphic Computing (Neucam) in 2023. Her group operates world-leading growth equipment including pulsed laser deposition with RHEED control, high temperature oxide sputtering, and spatial ALD systems. She collaborates extensively across the University of Cambridge and with international partners to solve complex materials challenges, with her group's role often being to identify optimal materials for functional goals, predict fabrication methods, and then create and characterize these materials.

• Functional Materials and Oxides
• Materials for Energy Applications
• Spintronic and Multiferroic Materials
• +7 more

Charles Ahn is the John C. Malone Professor of Applied Physics & Materials Science at Yale University. His research focuses on fabricating and studying novel complex oxide materials using advanced techniques like molecular beam epitaxy and synchrotron x-ray scattering. His work addresses multifunctional oxides, nanofabrication, and nonvolatile logic switches for post-CMOS computing. Key research areas include electronic control of complex order parameters in correlated oxides and scanning probe microscopy-based nanofabrication. Education: Ph.D. in Applied Physics from Stanford University. Research interests span the physics and technology of complex oxides, with emphasis on electronic and structural control at the nanoscale. His group develops next-generation materials for computing and electronics, leveraging interdisciplinary approaches in materials science and condensed matter physics. Notable awards include Fellow of the American Physical Society, AVS Peter Mark Memorial Award, David and Lucile Packard Fellowship, and Alfred P. Sloan Fellowship. His lab (Ahn Lab) actively explores cutting-edge applications in oxide electronics and quantum phenomena. Grants and patents include innovations in magnetoelectronic devices and ferroelectric-based technologies. He collaborates widely, bridging experimental materials science with theoretical modeling to advance functional oxide systems.

• Complex Oxides
• Nanofabrication
• Electronic Control in Correlated Oxides
• +4 more

Andras Kis is a Full Professor at the École Polytechnique Fédérale de Lausanne (EPFL), affiliated with the School of Engineering (STI) across multiple institutes including the Institute of Electrical Engineering (IEL), Institute of Materials Science (IMX), and teaching programs in Electrical Engineering (SEL-ENS). He leads the Laboratory of Nanoscale Electronics and Structures (LANES) and serves on the PhD program committee for Microsystems and Microelectronics. PhD, EPFL (2003) MS, Physics, University of Zagreb (1999) Baccalaureate, MIOC High School Research Focus: Pioneering work on 2D materials for electronic and optoelectronic devices, particularly transition metal dichalcogenides like MoS2 and PtSe2. His research spans: Transistor design with atomically thin semiconductors Excitonic devices and valleytronics Nanofluidics and ionic logic Optical properties of 2D heterostructures Scalable fabrication of 2D materials Defect engineering and doping techniques Scientific Impact: Based on analysis of 15 most recent publications, his work focuses on advancing 2D materials for next-generation electronics through innovations in: Van der Waals heterostructures Thermoelectric and optoelectronic applications Nanofabrication techniques Spintronic and quantum transport phenomena Memristive and neuromorphic devices Characterization of electronic and optical properties Awards & Recognition: Fellow of the Institute of Electrical and Electronics Engineers (IEEE) Lotfi A. Zadeh Award for Emerging Technologies (2024) Highly Cited Researcher (Clarivate Analytics) Teaching & Academic Leadership: Currently teaching courses including Lab in Nanoelectronics , Physical Models for Micro and Nanosystems , and Semiconductor Devices II . He has supervised over 20 PhD students in his research group at EPFL. Laboratory & Collaborations: Directs the Laboratory of Nanoscale Electronics and Structures (LANES) which focuses on fundamental and applied research in 2D materials and nanoelectronic devices. His work bridges materials science, condensed matter physics, and microelectronics engineering.

• 2D Materials
• Nanoscale Electronics
• Optoelectronics
• +3 more

Peng Xiong is a Professor in the Department of Physics at Florida State University, with a research focus on electron and spin transport in low-dimensional quantum materials. He is affiliated with the Integrative NanoScience Institute (INSI) and has made significant contributions to mesoscale physics, spintronics, and organic/solid-state hybrid systems. B.S. in Physics (1987, University of Science and Technology of China) Ph.D. in Physics (1993, Brown University) Postdoctoral Fellowship (1993-1997, University of California at San Diego) Research Interests: Mesoscale Physics: Quantum phase transitions and fluctuation effects in 2D and 1D systems, semiconductor nanowires, carbon nanotubes, and nano-magnetism. Spintronics: Spin-polarized transport in hybrid structures (ferromagnet/normal metal, ferromagnet/superconductor, ferromagnet/semiconductor), magnetic semiconductors, and spin injection/detection. Organic/Solid-State Hybrids: Nanoscale biosensors utilizing magnetic and electrical principles, bio-mechanical devices, organic/solid interfaces, and template-directed nanostructure self-assembly. Publication Trends: His recent work spans superconducting fluctuations in ultrathin films, chirality-induced spin transport in semiconductors, interplay between structural chirality and spin-orbital effects, ion migration dynamics in 1D hybrids, quantum interference in nanowire loops, and modulation of nanomaterial properties through surface defect engineering. These studies often combine material synthesis, nanofabrication, cryogenic transport, and tunneling measurements. Scientific Recognition: Alfred P. Sloan Research Fellowship (1998) University Teaching Award (2003) PAI Award for Excellence (2004) Developing Scholar Award (2007) Fellow of the American Physical Society (2012) Advising Legacy: He has mentored numerous graduate students including Jeffrey Parker (Ph.D. 2003) Yongqing Li (Ph.D. 2003) Tianhan Liu (Ph.D. 2021) Jacob Hudis (Ph.D. 2021) and continues to guide current candidates like Yuwaraj Adhikari and Zhenqi Hua. Experimental Facilities: The lab at FSU features advanced equipment for nano-fabrication, including clean rooms, mask aligners, and thin film deposition systems. Cryogenic capabilities extend to dilution refrigerators (15 mK) and He3/He4 cryostats for ultralow-temperature studies of magnetic and superconducting systems.

• Mesoscale Physics
• Spintronics
• Organic/Solid-State Hybrid Structures
• +1 more

Professor Gao Min Gao is a distinguished academic at Cardiff University's School of Engineering, holding the position of Professor of Energy Materials and Head of the Thermoelectric Laboratory. With over 25 years of experience in thermoelectric research, he has established himself as a leading expert in energy conversion technologies. His career at Cardiff University spans from Research Assistant/Associate (1993-1999) to his current professorship (2016-Present), with progressive academic promotions reflecting his significant contributions to the field. BSc in Semiconductor Physics from Xidian University, China PhD in Thermoelectrics under Professor D M Rowe at Cardiff University, UK Professor Gao's research focuses on fundamental understanding of thermoelectric processes for energy harvesting applications, with key areas including thermoelectric materials and devices, solution processed solar cells (Perovskite, OPV), concentrated photovoltaic/thermoelectric systems, and magnetocaloric materials. His work has significantly advanced the field, particularly through his early contributions to Peltier module applications for waste heat recovery and the development of improved TE module theory. His current research emphasizes novel characterization techniques for thermoelectric processes and innovative concepts for full-spectrum solar energy harvesting based on hybrid PV-TE systems. His extensive publication record demonstrates consistent high-impact research output across thermoelectrics and solar energy conversion. The articles show a clear progression from fundamental thermoelectric theory to practical applications and hybrid systems, with recent work focusing on spectral splitting, advanced concentrator designs, and novel material systems like Fe11Ti3Al6 alloys. His research bridges fundamental physics with practical engineering applications, particularly in waste heat recovery and solar energy harvesting. Board Member of European Thermoelectric Society (2013-2019) Member of EPSRC Review College (2016-Present) Theme coordinator (Device Physics), UK Thermoelectric Network (2016-Present) Independent expert for EC H2020 Programme (2014-2016) Professor Gao has supervised numerous PhD students, with current projects spanning laser micro-spectroscopy, next-generation photovoltaics, graphene/ceramic composites, and full-spectrum solar energy harvesting. His externally funded research includes significant projects such as the EU-RFCS-funded 'Development of innovative TEG systems optimized for energy harvesting from EAF off-gas cooling water' (2020-2024) and the EPSRC SUPERGEN project on 'Environmental impact of perovskite solar cell' (2019). His Thermoelectric Laboratory at Cardiff University serves as a hub for cutting-edge research in energy materials and conversion technologies.

• Thermoelectric materials
• Solar energy harvesting
• Photovoltaic systems
• +5 more

Ramanathan Mahendiran is an Associate Professor at the National University of Singapore, specializing in spintronics, multiferroics, and advanced materials research. His work focuses on the interplay between charge transport, magnetism, and thermoelectric properties in oxide systems. Education: PhD in Physics from the Indian Institute of Science, India (1997). Research interests include spin-charge interconversion, magnetostrictive materials, and the development of novel characterization techniques for magnetic and electrical properties. His lab employs advanced methods such as broadband ferromagnetic resonance, magnetoimpedance, and electrical detection of paramagnetic resonance. Recent research highlights include studies on Sr2FeMoO6's microwave magnetoresistance, paramagnetic resonance detection in DPPH, and anomalous Nernst effect in perovskites. His work bridges fundamental physics with applications in non-volatile memories and energy-efficient materials. No scientific awards are explicitly mentioned. He advises no listed students, though his research group focuses on advanced material synthesis and characterization techniques.

• Spintronics
• Multiferroics
• Thermoelectrics
• +5 more

Dr. Karin Leistner serves as Group Leader for Nanoelectrodeposition and Magneto-ionic Materials at the Leibniz Institute for Solid State and Materials Research Dresden (IFW Dresden). Her research focuses on the intersection of electrochemistry and magnetism, developing energy-efficient methods for voltage-controlled magnetic nanostructures. Her primary research interests include Magneto-ionic Materials , Nanoelectrodeposition , Magnetic Nanostructures , and Voltage-Controlled Magnetism . Through electrochemical approaches, she pioneers methods to manipulate magnetic properties at the nanoscale without requiring external magnetic fields, enabling applications in low-power spintronics and memory devices. Her work emphasizes redox transformations, electrolytic gating, and interfacial engineering to achieve programmable magnetism in hybrid metal/oxide systems. Analysis of her publication trends reveals consistent innovation in magneto-ionic effects (2021-2025), with increasing focus on microscale patterning (2023-2025) and energy-efficient device applications . Her research spans fundamental electrochemistry (e.g., self-terminated electrodeposition) to applied nanotechnology (e.g., magnetoresistance switching aerogels), demonstrating strong translational potential. Recent work integrates advanced characterization techniques like Kerr microscopy with electrochemical control for precise magnetic manipulation. Dr. Leistner has delivered over 20 invited talks at international institutions including TU Chemnitz, Forschungszentrum Jülich, and Simon Fraser University, highlighting her recognition as a leading expert in electrochemically controlled magnetism. Her collaborative research spans multiple continents, with publications co-authored by teams in Germany, USA, Mexico, Austria, and Slovenia. She leads research activities within IFW Dresden's nanoelectrodeposition laboratory, utilizing specialized electrochemical cells coupled with in situ magnetic characterization. Her group maintains strong collaborations with transmission electron microscopy facilities for real-time observation of electrochemical deposition processes, as demonstrated in joint work with the Wigner Research Centre for Physics.

• Magneto-ionic Materials
• Nanoelectrodeposition
• Magnetic Nanostructures
• +5 more

Igor Roncevic is a Lecturer in Computational and Theoretical Chemistry, focusing on interdisciplinary research spanning materials science, organic chemistry, and theoretical physics. His work contributes to UN Sustainable Development Goals through innovations in molecular design and energy-related materials. Research Interests Computational modeling of porphyrin-based systems and nanomaterials Electronic and structural characterization of antiaromatic and aromatic compounds Energy levels and charge transfer dynamics in molecular systems Development of novel carbon allotropes and their applications Recent Research Trends Roncevic’s articles emphasize porphyrin nanorings, cyclocarbon stabilization, and bistable electronic states. His work explores quantum interference phenomena, phase transitions in liquid metals, and photoswitchable molecular arrays. These studies bridge theoretical predictions with experimental validation, often using density functional theory (DFT) and advanced spectroscopic techniques. Advising Roncevic is currently accepting PhD students interested in computational chemistry and nanomaterials. He collaborates with international teams across Europe and the US, focusing on projects funded by grants in materials science and energy research.

• Computational Chemistry
• Theoretical Chemistry
• Materials Science
• +5 more

Pavel Kejik is a part-time Lecturer at the Swiss Federal Institute of Technology Lausanne (EPFL), affiliated with the School of Engineering. He joined EPFL's Institute of Microelectronics and Microsystems in 1999 and concurrently works at Monolithic Power Systems (formerly Sensima Technology SA) since 2014. His dual industry-academia role focuses on magnetic sensor industrialization. Education: Diploma degree, Czech Technical University in Prague (1994) PhD, Czech Technical University in Prague (1999) Research Interests: Dr. Kejik specializes in integrated magnetic sensor systems, including Hall effect and fluxgate magnetometry. His work emphasizes low-noise circuit design, offset cancellation techniques, CMOS integration, and applications in contactless current measurement, angular sensing, and non-destructive testing (NDT). Key innovations involve micro-Hall probes, orthogonal fluxgate structures, and noise-reduction methodologies for industrial applications. Publication Trends: His recent articles (2007-2014) demonstrate a consistent focus on CMOS-integrated magnetic sensors, particularly Hall effect devices and fluxgate systems. Research themes include miniaturization, power efficiency optimization, angular position detection, and novel compensation architectures for industrial sensing applications. Advising: Supervised one PhD student: Özge Zorlu. No grants or awards mentioned. Industry Collaboration: Active in sensor industrialization through Monolithic Power Systems and contributes to the Europractice course 'Smart Sensor Systems'. Patents cover innovations in Hall arrays, fluxgate structures, and magnetic anomaly detection.

• Magnetic Sensors
• Hall Effect Sensors
• Fluxgate Magnetometry
• +4 more

Dr. Sashi Satpathy is a Curators’ Professor in the Department of Condensed Matter Theory at the University of Missouri, Columbia. His research focuses on theoretical and computational studies of electronic structure and magnetism in solids, with a particular emphasis on correlated oxides, spin ice materials, and two-dimensional (2D) systems like transition metal dichalcogenides (TMDs) and graphene. He employs advanced computational techniques such as density-functional theory (DFT), exact diagonalization, and quantum Monte Carlo methods to investigate phenomena like topological phases, spin-orbit coupling effects, and orbital Hall effects. Education: PhD in Physics from the University of Illinois at Urbana-Champaign Research Interests: Prof. Satpathy’s work bridges computational theory and materials science, exploring how electron interactions and spin-orbit coupling drive emergent phenomena in solids. Key areas include: Magnetism and electronic structure in correlated oxides Topological phases and skyrmion crystals in 2D materials Spintronics and orbital Hall effects in centrosymmetric TMDs Strain engineering of electronic properties in monolayer systems His recent studies highlight the role of symmetry-breaking in orbital dynamics and the tunability of electronic states via external fields or structural strain. Publications Trends: His articles (2020–2024) emphasize theoretical predictions of novel electronic behaviors in 2D materials, such as giant orbital Hall effects in TMDs and strain-driven transitions in cuprates. This work contributes to advancing quantum materials for spintronic and topological device applications. Awards & Grants: While no specific awards are listed, his sustained research output reflects recognition in the condensed matter community. Funding sources and grants are not explicitly detailed in the provided text. Labs & Teams: He leads the Computational Condensed Matter Theory Group , which develops theoretical frameworks and computational models to predict and explain phenomena in complex materials systems.

• Condensed Matter Physics
• Electronic Structure Theory
• Magnetism in Solids
• +4 more

Dr. Denys Makarov is Head of the Department of Intelligent Materials and Systems at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) , Germany, and leads the Helmholtz Innovation Lab FlexiSens . His work bridges materials science, magnetism, and flexible electronics, with major contributions to curvilinear magnetism and shapeable magnetoelectronics. Taras Shevchenko National University of Kyiv – Master’s (2005) University of Konstanz – Ph.D. in Physics (2008) His research focuses on flexible magnetic electronics , printable sensorics , and 3D nanoarchitectures , enabling breakthroughs in human-machine interfaces , soft robotics , and medical devices . He explores magnetism on curved surfaces , antiferromagnetic thin films , and wearable magnetic sensors . His recent publications reveal a strong trend in topological magnetism , self-healing sensors , and reconfigurable soft systems , often published in Nature Communications , Advanced Materials , and Nature Electronics . Scientific Awards and Recognitions: ERC Advanced Grant (2025) Fellow, Young Academy of Europe (2020) ERC Starting Grant (2012) IEEE Senior Member (2016) ERC Proof-of-Concept Grants (2013, 2017) Fudan Fellow (2019) Research Prize of IFW Dresden (2011, 2012) Dr. Makarov has led numerous national and international projects as Principal Investigator, including ERC, EU Horizon, DFG, and BMBF grants. He mentors junior researchers and leads a vibrant team at HZDR. He is actively involved in scientific outreach, organizing major conferences such as iSIM and JEMS , and serves on editorial boards for top journals including Nature family and Advanced Materials . He is a key figure in the Dresden Center for Intelligent Materials (DCIM) and co-leads initiatives in magnetic nanomembranes and flexible sensorics , fostering collaboration between academia and industry.

• Curvilinear Magnetism
• Flexible Electronics
• Magnetoelectronics
• +12 more

Dr. Goran Branković is a Scientific Advisor at the Institute for Multidisciplinary Research, University of Belgrade , with over two decades of experience in materials science and electroceramics. His work focuses on functional ceramics for energy, sensing, and environmental applications. PhD in Technical Sciences (Chemical Technology) from University of São Paulo (2002) MSc in Materials Science from University of Belgrade (1999) BSc in Physics from University of Belgrade (1993) Research interests span multiple areas: Advanced Electroceramics : Sensors, varistors, ferroelectrics, and multiferroics Renewable Energy Materials : SOFC, photovoltaics, thermoelectrics Photocatalysis : Environmental remediation using TiO2, ZnO, and their composites Nanostructured Materials : Synthesis, characterization, and application in biotechnology Recent publications highlight his work on bioactive biopolymer matrices for pest control, mesoporous oxides for humidity sensing, and doped ceramics for energy applications. His research integrates computational modeling and advanced characterization techniques (SEM, TEM, XRD). Scientific honors include: Award from the Ministry of Science and Environmental Protection of Serbia (2003) He leads collaborative projects between Serbia and international institutions, with expertise in spark plasma sintering , sol-gel methods , and electrochemical synthesis . Current projects focus on concept-proof technologies for gas sensors and photovoltaic materials.

• Electroceramics
• Materials for Renewable Energy
• Photocatalysis
• +3 more

Thomas Thomson is Professor of Computer Engineering at the University of Manchester, where he heads the Nano Engineering and Storage Technologies Research Group and serves as Chair of the management board of the Graphene NOWNANO Centre for Doctoral Training. With extensive industry experience from IBM Almaden Research Center and Hitachi San Jose Research Center in Silicon Valley, he brings significant practical expertise to his academic role. His research interests focus on developing novel perpendicular anisotropy, nanostructured exchange spring thin films for data storage and spintronics. He explores the interaction of hybrid magnetic films with in-plane and perpendicular anisotropy, magnetic thin film multilayers with temperature dependence (particularly FePt/FeRh/FePt structures), electrical measurements of magnetic properties using mesoscale Hall devices, and magnetism in graphene and other 2D materials for spintronic applications. His recent publications demonstrate a strong focus on spintronics, graphene applications, and advanced magnetic materials, showing continued research activity through 2025. His work has significant implications for next-generation data storage technologies and spintronic devices. Chief editor of IEEE Transactions on Magnetics (2010-2012) Worldwide finance chair of IEEE Magnetics Society (2011-2012) Chair of Institute of Physics Magnetism Group Program committee member for MMM and Intermag conferences Chair of Magnetism 2014 UK conference Professor Thomson actively supervises numerous PhD students through the CDT in Science and Applications of Graphene and Related Nanomaterial project, which runs from 2014 to 2025. His research group, the Nano Engineering and Storage Technologies Group, focuses on cutting-edge developments in magnetic materials and spintronics, with strong connections to industry and international research collaborations.

• Spintronics
• Nanomagnetism
• Data Storage
• +5 more

Liubov Belova is a Professor at KTH Royal Institute of Technology, leading the Engineering Materials Physics group. Her research focuses on interdisciplinary nanotechnology, spanning from fundamental studies (e.g., nano-magnetism) to applied 3D patterning techniques for biomedical and electronics applications. The group develops unconventional 3D fabrication methods using electron beam and ink-jet technologies, enabling precise material deposition across nanometer to meter scales. She coordinates courses like Ceramic Materials (MH1031) and oversees research supervision programs. Her work integrates academic and industrial collaboration networks, contributing to R&D in high-tech sectors. Belova's research emphasizes mask-free nanofabrication, magnetoelectronics, and live cell mapping for biomedical innovations. The group’s capabilities include chemical synthesis, thin film technology, and 3D tomography applications.

• Nanotechnology
• Materials Science
• Nano-Magnetism
• +5 more

Professor Paolo G. Radaelli is the Dr Lee's Professor of Experimental Philosophy at the Clarendon Laboratory, University of Oxford, and a Professorial Fellow at Wadham College. He holds key roles in quantum materials research within the Condensed Matter Physics sub-department, specializing in oxide electronics. Education : Laurea from Università degli Studi di Milano, PhD from Illinois Institute of Technology. Research Experience : Postdoctoral roles at Argonne National Laboratory, CNRS, Institute Laue–Langevin, and ISIS Facility. His research focuses on quantum materials , particularly antiferromagnetic spin textures , topological defects , and spintronic applications . Recent work explores crystal field engineering, twisted bilayer materials, and magneto-orbital coupling. His 15 most recent publications (2023–2017) span topics like antiferromagnetic skyrmions, photoluminescence in perovskites, and Brexit's impact on academia. Articles highlight interdisciplinary trends in condensed matter physics , magnetism , and quantum technologies . Scientific Awards MPLS Excellent Supervisor Award (2020) Prof Radaelli's work bridges theoretical and experimental physics, with collaborations across international institutions and contributions to neutron diffraction, density functional theory, and spintronic device design.

• Quantum Materials
• Oxide Electronics
• Spintronics
• +5 more