Prof Laura Herz is an Honorary Professor in the Department of Electronic Materials Engineering at the Research School of Physics , Australian National University (ANU). She contributes to the Semiconductor Optoelectronics and Nanotechnology Research Group, focusing on advanced semiconductor devices and optoelectronic applications. In 2022, Herz co-authored a conference paper titled Nanowire Sensors Facilitate Polarization Sensitive Terahertz Spectroscopy , which highlights her work on nanowire-based sensors for terahertz technology. Her research aligns with the group's expertise in semiconductor nanotechnology, including quantum dots, nanowires, and optoelectronic device fabrication. Herz's collaborations extend to key members of the ANU research team, including Professor Chennupati Jagadish and Professor Lan Fu, who are prominent in compound semiconductor optoelectronics and nanotechnology. Her work contributes to the development of next-generation photonic and optoelectronic systems.
Edmund R. Nowak is a Professor and Department Chair in the Department of Physics & Astronomy at the University of Delaware . His research focuses on spintronic nanostructures , magnetic tunnel junctions , vortex dynamics in superconductors , and granular media dynamics . He has contributed significantly to understanding noise mechanisms in magnetic devices and the development of ultra-sensitive magnetic field sensors. His work also spans material synthesis and characterization of novel semiconductor compounds, such as gallium pnictides and layered materials like BaGa₂Pn₂. His academic leadership includes chairing the Physics & Astronomy department, where he oversees both educational and research initiatives. His research has been published widely, with a focus on experimental and theoretical studies of magnetic nanodevices and their applications in spintronics and sensor technology. Notable contributions include advancing techniques to suppress noise in magnetic tunnel junctions, optimizing sensor performance for picoTesla-level detection, and investigating the effects of annealing on magnetic materials. His interdisciplinary approach bridges condensed matter physics, materials science, and device engineering. Edmund R. Nowak collaborates with industry and academic partners to translate fundamental research into practical applications, such as biodetection systems and low-power magnetometers. His lab at the University of Delaware is equipped for advanced material fabrication, magnetic characterization, and noise analysis.
Professor Scott Donne is a faculty member at the University of Newcastle's School of Environmental and Life Sciences, specializing in Chemistry. His primary role is as a Professor, focusing on electrochemistry, energy storage materials, and industrial chemistry. He holds a PhD and BSc from the University of Newcastle and has been affiliated with the university since 2001 as the Delta EMD Lecturer in Applied Chemistry. Research Interests: Professor Donne's research revolves around electrochemical materials, including batteries, supercapacitors, and fuel cells. He investigates novel materials for energy storage, corrosion science, and electrodeposition. His work bridges fundamental electrochemistry with industrial applications, emphasizing practical solutions for energy and environmental challenges. Publications & Grants: He has authored/co-authored over 200 publications, including studies on manganese dioxide electrodes, biochar applications, and thermochemical hydrogen production. His work demonstrates expertise in both academic research (e.g., electrochemical capacitor mechanisms) and applied technologies (e.g., biochar fertilization). He has secured significant external funding and supervised numerous postgraduate students. Awards & Recognition: While no explicit awards are listed, his extensive publications and funding indicate recognition in his field. His contributions to energy storage and environmental science align with global sustainability goals. Labs & Teams: His research group likely focuses on electrochemical systems and materials innovation, though specific lab names are not mentioned. Collaborations span academia and industry, evidenced by prior work at Eveready Battery Company.
Dr. Xin Yi is a Research Fellow at Heriot-Watt University's School of Engineering & Physical Sciences, affiliated with the Institute of Photonics and Quantum Sciences. He holds a PhD in Electronic and Electrical Engineering from the University of Sheffield (2015–2020) and joined Heriot-Watt in 2020 as a Research Associate. His research focuses on developing next-generation quantum detectors, particularly avalanche photodiodes and single-photon avalanche diodes (SPADs) for short-wave infrared (SWIR) applications. Funded by the EPSRC, his work emphasizes semiconductor materials like AlAsSb, III-V compounds, and Ge-on-Si heterostructures to enhance detector performance in quantum technologies. Research interests include impact ionization mechanisms, semiconductor characterization, and device fabrication. Key achievements include designing low-noise Ge-on-Si SPADs with record sensitivity and high-gain avalanche photodiodes for SWIR detection. Yi has received the EPSRC Quantum Technology Career Development Fellowship (2022) and contributed to over 20 peer-reviewed publications. He collaborates internationally and actively presents at conferences, showcasing advancements in quantum detectors and optoelectronic materials. His work bridges theoretical modeling and experimental validation, targeting applications in quantum communication, sensing, and imaging. Grants and fellowships support his exploration of novel semiconductor materials and fabrication techniques to push the boundaries of SWIR detection beyond traditional silicon limitations.
Kirsten Andrea Schnorr is a Researcher at the Paul Scherrer Institute (PSI) in Switzerland, working within the Center for Photon Science and Laboratory for Femtochemistry. She joined the SwissFEL team in 2018 to develop the Maloja endstation for atomic, molecular, and non-linear physics, leading its design, construction, and operational commissioning for cutting-edge XUV/X-ray experiments. Her educational background includes: PhD in Physics (2014), Ruprecht Karl University Heidelberg, completed at the Max Planck Institute for Nuclear Physics under PD Dr. Robert Moshammer; thesis focused on XUV pump-probe experiments of electron rearrangement and interatomic Coulombic decay in diatomic molecules. Schnorr's research centers on photo-induced ultrafast relaxation mechanisms in atoms, molecules, and nanoparticles using time-resolved techniques at Free-Electron Lasers and High Harmonic Generation sources. She pioneers multi-color pump-probe schemes with ultrashort X-ray pulses to steer non-local decay processes like Interatomic Coulombic Decay and Electron Mediated Decay, enabling real-time observation of electron dynamics and proton transfer in molecular systems. Her publication trends (2025-2020) reveal dual expertise in fundamental molecular dynamics and instrumental innovation. Key themes include proton transfer in water dimers (Science Advances 2023), Coulomb explosion in iodinated compounds (2025), and engineering breakthroughs like compact gas attenuators (2023) and polarization control systems (2024), frequently published in Physical Review Letters, Nature Communications, and Journal of Synchrotron Radiation. Scientific awards: Peter Paul Ewald Fellowship from the Volkswagen Foundation (2015), supporting her research on non-linear relaxation processes at UC Berkeley's Physical Chemistry Department under Prof. Stephen Leone. No formal advisees or student supervision are documented. The Volkswagen Foundation fellowship served as her primary grant, funding postdoctoral work on real-time relaxation studies; no additional grants are specified. Her instrumental leadership at SwissFEL suggests mentorship of junior scientists, though no individual students are named. Schnorr directs the Maloja instrument at SwissFEL while contributing to the ATHOS beamline development. She collaborates extensively with PSI's detector teams (e.g., JUNGFRAU advancements) and international groups like UC Berkeley's Physical Chemistry Department, driving initiatives in ultrafast beamline technology and molecular dynamics experiments.
Abinash Adhikari is an Assistant Professor at the Structural Research Division of the Faculty of Physics, Warsaw University of Technology. His research focuses on semiconductor materials, particularly the structural and optical properties of III-V and II-VI compounds, including CdO, MgO, ZnO, and their superlattices. He specializes in molecular beam epitaxy (MBE) growth techniques and investigates bandgap engineering, doping effects, and thermal properties. Expertise: Semiconductor alloys, superlattice structures, thin film deposition, MBE technology. His studies explore pressure-dependent phenomena, crystallographic orientation, and doping mechanisms in materials like CdMgO and ZnCdO. He also contributes to interdisciplinary work, such as a 2022 study on mucormycosis mortality linked to aspirin use, showcasing his cross-disciplinary engagement.
Jeanne Crassous is a CNRS Research Director at the Institut des Sciences Chimiques de Rennes , University of Rennes, France. She holds a prominent position in the field of chiral molecular materials, with a focus on helicenes and their applications in optoelectronics and fundamental chirality studies. Position: CNRS Director of Research (DR1) Institution: University of Rennes, Institut des Sciences Chimiques de Rennes (ISCR) Email: jeanne.crassous@univ-rennes.fr Office: 236, Building 10A, Campus de Beaulieu, Rennes Education PhD in Organic Chemistry, École Normale Supérieure de Lyon (1996) Research Habilitation, École Normale Supérieure de Lyon (2005) Post-doctoral Research, ETH Zurich (1997) Student, École Normale Supérieure de Lyon (1989) Research Interests Dr. Crassous specializes in the molecular engineering of helicenes , including organic and organometallic variants with chromophores or aggregating units. Her work explores chiroptics and fundamental chirality , with a focus on chiral organometallic complexes and vibrational circular dichroism (VCD) . She investigates how molecular chirality influences optical, electronic, and spin properties, enabling applications in advanced materials and quantum technologies. Publication Trends Her recent publications (2016–2023) reflect a strong focus on chiral luminescent materials , circularly polarized luminescence (CPL) , and chiral-induced spin selectivity (CISS) . She integrates synthesis, spectroscopy, and computational modeling (TDDFT) to design and characterize novel helicene-based systems for optoelectronics, spintronics, and parity violation experiments. Scientific Awards CNRS Silver Medal (2023) Distinguished Member of the French Chemical Society, senior category (2023) CNRS Talent (2023) Chemistry Europe Fellow (2020/2021) National Prize of the Organic Chemistry Division (SCF, 2020) Elected Member of the European Academy of Sciences (2021) Victor Grignard–Georg Witting Lecture Award (GDCh/SCF, 2024) Advising, Grants, and Collaborations Dr. Crassous leads and collaborates on numerous national and international research projects, including ANR-funded programs such as SMM-CPL, ChirON, and iCHIRALight. She mentors early-career researchers and collaborates with leading experts in France (ENS Lyon, Strasbourg, Angers) and abroad (USA, UK, Spain, Israel, Poland, Netherlands, Greece). Her work bridges organic, inorganic, and physical chemistry, fostering interdisciplinary innovation. Laboratories and Research Teams She is based at the Institut des Sciences Chimiques de Rennes (ISCR) , a leading French research institute in chemistry. Her team works within the Organométalliques et Catalyse (OMC) and Physique de la Matière Molle (PMM) groups, focusing on the synthesis and characterization of chiral molecular systems. The ISCR provides state-of-the-art facilities for spectroscopy, crystallography, and materials testing, supporting her cutting-edge research in chiral functional materials.
Alexander Zaslavsky is a Professor of Engineering and Physics at Brown University, where he has been a faculty member since 1994. He received his Ph.D. in electrical engineering from Princeton University in 1991 and completed postdoctoral work at IBM Research. His research spans semiconductor device physics with focus on novel device concepts that could supplement silicon transistor technology. He maintains active collaborations with institutions in France and has served as editor of Solid State Electronics since 2003. PhD in Electrical Engineering, Princeton University (1991) MS in Electrical Engineering, Princeton University (1988) BA, Harvard University (1986) Professor Zaslavsky's research focuses on developing alternative semiconductor devices that could supplement conventional silicon technology. His work spans five main areas: (1) quantum transport in silicon-based nanostructures and resonant tunneling; (2) tunneling-based semiconductor devices in silicon-on-insulator and germanium-on-insulator technology; (3) thin film transistors based on conducting oxides and iodides; (4) flexible metallic interconnects for flexible electronics; and (5) probabilistic computing implemented in silicon technology. His research bridges fundamental physics with practical device applications, particularly in low-power electronics and novel sensing mechanisms. Analysis of Professor Zaslavsky's recent publications reveals a strong focus on cryogenic electronics for quantum computing interfaces, novel memory architectures, and germanium-based photodetectors. His work increasingly intersects with quantum computing needs, particularly in developing cryo-CMOS circuitry and memory solutions. There's also continued emphasis on sharp-switching devices for ultra-low power applications and exploration of alternative materials like copper iodide for transparent electronics. The research demonstrates a strategic evolution from fundamental device physics toward applications in emerging computing paradigms. Alfred P. Sloan Fellowship (1995) Office of Naval Research Young Investigator Award (1995) National Science Foundation Career Award (1997) Editor of Solid State Electronics international journal (2003-present) Visiting Senior Chair of Excellence at Nanosciences Foundation, Grenoble (2009-2012) Professor Zaslavsky has mentored numerous students whose alumni have gone on to semiconductor companies (Micron, Applied Materials, GlobalFoundries, Synopsys), government labs (NIST, CNRS, Paul Scherrer Institute), and major industrial companies (EMC, Apple). His research has been supported by extensive funding including: Alfred P. Sloan Foundation ($30,000, 1995-1999); Office of Naval Research Young Investigator award ($265,750, 1995-1998); multiple NSF grants totaling over $1.5 million; Semiconductor Research Corporation subcontract ($95,000, 1998-2002); and Air Force Office of Scientific Research MURI award (sharing $350,000 annually, 2000-2005). Professor Zaslavsky leads an active research laboratory at Brown University focused on semiconductor device physics and engineering. Current projects include Cryo-CMOS and magnetic sensing (with Xiao lab at Brown, Tufts, NIST-Gaithersburg, CoolCAD Electronics, and MIT-Lincoln Laboratory); and Germanium quantum dot photodetectors (with Pacifici lab at Brown). The lab has previously worked on nitride hot electron and tunneling transistors, amorphous indium-zinc-oxide devices, tunneling devices in SOI, noise-immune CMOS design, Si and SiGe nanowire tunneling transistors, carbon nanotube devices, and flexible metal interconnects. The lab emphasizes comprehensive training from device fabrication to characterization and modeling.
Dr Qiandong Zhuang is a Reader in Semiconductor Quantum Materials and Devices at the Physics Department of Lancaster University. He joined Lancaster University in 2003 after working as a Research Scientist at Singapore Nanyang Technological University and the University of Glasgow. At Lancaster, he established the MBE Laboratory and has been leading the Semiconductor Quantum Materials and Devices research group. His primary research focuses on semiconductor nanostructures and physics: MBE growth of compound semiconductor materials including arsenide, antimonide, dilute nitride and nitrides Quantum structures including quantum dots, quantum rings, nanowires and superlattice Droplet epitaxy of unique quantum dots including GaAs/AlGaAs and GaSb/AlGaSb QDs Semiconductor nanowires and integration with silicon and 2D materials Fundamental studies using HRXRD, photoluminescence, and electroluminescence Advanced optoelectronic devices including VCSELs, Lasers, LEDs, and photodetectors Dr Zhuang's current work emphasizes epitaxy of semiconductor quantum materials for photonic devices and laser-based spectroscopic technology for medical sensors and gas monitoring. His recent publications show strong trends in infrared photodetectors, semiconductor nanowires, and applications in medical sensing (particularly non-invasive glucose monitoring) and environmental monitoring. Dr Zhuang maintains extensive national and international collaborations with institutions including Nottingham University, Surrey University, Warwick University, Shanghai Institute of Technical Physics CAS, and University of Electronic Science and Technology of China. He has established industrial partnerships with Cascade Technologies Emerson, Lumentum, Gas Sensing Solutions Ltd, and CST Global. He actively supervises PhD students and welcomes researchers for postdoctoral positions. His major research projects include Horizon Europe's COMPAS, Drone-based air pollution mapping (SNIFFIRDRONE), and various VCSEL-based spectroscopy projects for non-invasive glucose monitoring. Dr Zhuang hosts academic visitors from China, India, and Russia, and encourages international collaborations in semiconductor quantum materials research.
Dr. Amit Verma serves as an Associate Professor in the Department of Electrical Engineering at the Indian Institute of Technology Kanpur (IIT Kanpur). His research focuses on advanced materials for semiconductor applications, with particular expertise in oxide materials and device fabrication. Research Focus: Dr. Verma's work primarily centers on materials growth for semiconductor device fabrication, characterization, and modeling. His research spans thin film growth, epitaxy, semiconductor device fabrication, electron transport phenomena, and oxide semiconductors. His expertise bridges fundamental materials science with practical electronic device applications. Research Trends: Analysis of Dr. Verma's publications reveals a consistent focus on complex oxide materials, particularly strontium titanate (SrTiO 3 ) and related compounds. His work explores electron transport mechanisms, ferroelectric properties, and device applications of these materials. The research demonstrates a progression from fundamental material characterization to practical device implementation, with significant contributions to understanding electron density modulation in oxide semiconductors. IIT (BHU) Varanasi Medal (2013) Outstanding Graduate Student Teacher Award , University of Notre Dame (2011) Academic Contributions: Dr. Verma teaches EE210 Tutorial (Microelectronics - I) and ESC201 Tutorial and Lab (Introduction to Electronics) at IIT Kanpur. His professional experience includes research positions at Cornell University (May 2015-June 2016) and NUSNNI, National University of Singapore (July 2016-November 2016). His educational background includes a PhD in Electrical Engineering from the University of Notre Dame (2015) with thesis on 'Modulating Extreme Electron Densities in Complex Oxides' under Dr. Debdeep Jena, and an Integrated M.Tech in Engineering Physics from IIT (BHU), Varanasi (2010).
Timothy H. Gfroerer is a Professor of Physics at Davidson College , where he has been since 1999. His research focuses on semiconductor spectroscopy and defect analysis in optoelectronic devices for solar energy and LED applications. He has mentored over 25 undergraduate researchers who co-authored publications with him. Ph.D. in Physics from Dartmouth College (1996) M.S. in Electrical Engineering from Georgia Institute of Technology (1991) B.S. in Physics from University of the South (1989) His research interests include defect state characterization in semiconductors, carrier diffusion dynamics, and sustainable energy technology . He employs techniques like photoluminescence imaging, thermal diffusivity analysis, and transient capacitance spectroscopy. His work has been funded by the American Chemical Society – Petroleum Research Fund and Research Corporation . The scientific awards he has received include the Duke Energy Distinguished Visiting Faculty Award (2011-2012). His publications demonstrate expertise in defect-related recombination , quantum dot relaxation , and device efficiency optimization . He has also contributed significantly to physics pedagogy through lab development and student-centered teaching methods.
Dana Weinstein is a Professor in the Department of Electrical and Computer Engineering at Purdue University, West Lafayette campus. Her research focuses on cutting-edge MEMS resonators, RF device integration, and acoustoelectronic systems. Academic Rank: Professor Department: Electrical and Computer Engineering University: Purdue University Email: danaw@purdue.edu Research Interests: Microelectronics and MEMS Resonators Radio Frequency (RF) Devices and 2D Materials Silicon Photonics and Ferroelectric Transducers Acoustoelectronics and GaN/SiC Heterostructures Integrated Nonreciprocal RF MEMS Devices Scientific Awards: NSF CAREER Award (2017) NSF CAREER Award (2012) Editorial Leadership in IEEE Nanotechnology Express (2015) Key Article Trends: Her recent publications explore advanced MEMS resonators, high-frequency RF devices, acoustoelectric interactions, and integration of 2D materials into CMOS-compatible platforms. Topics include Sezawa wave SAW devices, GaN/SiC heterostructures, BEOL-compatible transistors, and ferroelectric-based transducers.
Professor Stewart Clark is a Professor in the Department of Physics at Durham University, where he serves as Head of the Condensed Matter Section. His academic career spans several decades with numerous publications in computational physics and materials science. He teaches Level 1: Modern Physics courses at the university and maintains active research collaborations across multiple institutions. Professor Clark's research focuses on computational approaches to understanding materials at the atomic level. His work primarily involves first-principles calculations and computer simulations of solid state, liquid, and molecular systems. He has made significant contributions to density functional perturbation theory , structural and vibrational properties calculations, and the development of techniques for excited electronic states . His research leverages high performance computing for large-scale simulations of complex materials systems. Analysis of Professor Clark's recent publications reveals a strong focus on advanced materials research in condensed matter physics. His work frequently employs computational methods to investigate electronic structures , magnetic properties , and phase transitions in quantum materials, perovskites, and two-dimensional systems. There's particular emphasis on materials behavior under extreme conditions such as high pressure, with applications spanning electronics, energy storage, and quantum technologies. As Head of the Condensed Matter Section, Professor Clark oversees research activities and likely mentors junior faculty and research staff. His extensive publication record spanning multiple decades suggests successful acquisition of research funding from various sources to support his computational physics research program. His work bridges theoretical physics and materials science, contributing to fundamental understanding of material properties with potential technological applications. Professor Clark's research likely involves computational laboratories with access to high-performance computing resources. His work demonstrates strong interdisciplinary connections between physics, chemistry, and materials science, with collaborations spanning multiple institutions as evidenced by his co-authored publications.
Dr. Alexander R. Uhl is an Associate Professor at the Okanagan School of Engineering, University of British Columbia, holding the Principal's Research Chair in Solar Energy Conversion. His research focuses on solution-processed solar cells, including chalcogenide and perovskite absorbers, with an emphasis on scalable, low-cost fabrication methods. He has achieved world-record efficiencies in CuIn(S,Se) 2 solar cells. Education: PhD in Materials Science & Engineering from ETH Zurich; Diploma in Nanoscale Engineering from University of Würzburg Postdoctoral Experience: University of Washington (with Hugh Hillhouse) and EPFL (with Michael Grätzel) His research program addresses three key areas: Solution-processed thin film solar cells Tandem photovoltaic devices Photoelectrochemical CO 2 reduction for solar fuels Dr. Uhl has published in journals like Nature Energy , Science Advances , and Advanced Energy Materials , with recent work on 22%+ efficient perovskite cells and rear surface passivation techniques. He has filed two patents on solution-processed chalcogenide solar cells. Scientific Recognition: Principal's Research Chair in Solar Energy Conversion Three-time Swiss National Science Foundation Fellow Invited book chapter on perovskite solar cell counter electrodes He supervises graduate students and teaches courses in materials science and alternative energy systems. His lab (LSEF) develops technologies aiming to surpass coal-equivalent electricity prices through ink-jet printing and high-throughput manufacturing.
Jean-Luc Autran is an Exceptional University Professor (PRCE2) at Aix-Marseille University, affiliated with the Department of Detection, Radiation and Reliability (DETECT) within the Faculty of Sciences. Since July 2023, he has been temporarily assigned to the University of Rennes for managerial roles. His research focuses on radiation effects in microelectronics, particularly soft errors caused by atmospheric neutrons, muons, protons, and terrestrial radiation in nanoscale devices. Key Research Areas: Microelectronics Reliability, Single-Event Effects, Atmospheric Radiation, Neutron Interactions, Muon Physics, Radiation-Hardened Design. Scientific Leadership: As an Honorary Member of the Institut Universitaire de France (since 2003), he leads multidisciplinary efforts from radiation metrology to multi-physics circuit simulation via tools like GEANT4, SRIM, and NGSPICE. His work spans 25+ years, evolving from quantum transport in nano-MOSFETs (1998-2008) to atmospheric radiation effects (2005-present). Recent Contributions: 2025 studies on ultrawide-bandgap semiconductors, deep learning-based radiation simulations, and JET Tokamak neutron experiments. He pioneers a multi-scale Single-Event Effect simulation framework for decananometer CMOS, integrating particle physics, device modeling, and system-level error rate prediction. Scientific Awards: Honorary Member, Institut Universitaire de France (2003 class). Educational Impact: Teaches graduate courses in quantum mechanics simulation, nanoelectronics reliability, and radiation detection at Aix-Marseille University, with lectures delivered in English for international audiences.
