Dharmraj Kotekar Patil is an Assistant Professor in the Department of Physics at the University of Arkansas, College of Arts & Sciences. He serves as the Foundry Network Coordinator for MonArk NSF Quantum Foundry. His academic journey includes a PhD from Eberhard Karls University of Tübingen, Germany, and MSc and BSc degrees from the University of Mumbai, India. His research focuses on quantum physics with particular emphasis on quantum transport phenomena in two-dimensional materials, quantum dots, and spin-based quantum computing. Dr. Kotekar Patil's work bridges fundamental quantum mechanics with practical applications in next-generation quantum technologies. His recent publications demonstrate a strong trajectory in quantum materials research, with significant contributions to understanding electron behavior in transition metal dichalcogenides, Ge/Si core/shell nanowires, and silicon-based spin qubits. His work spans both theoretical and experimental approaches to quantum transport phenomena. Quantum Computation and Quantum Information Mesoscopic Physics Quantum Transport Quantum Materials and Devices Dr. Kotekar Patil's laboratory work centers on quantum transport in two-dimensional transition metal dichalcogenides and Ge/Si core/shell nanowires, with particular focus on spin qubit implementations in silicon. His research has practical implications for the development of scalable quantum computing architectures using CMOS-compatible manufacturing processes.
Emmanuelle Deleporte is a Professor of Physics at Ecole Normale Supérieure Paris-Saclay since 2002, affiliated with the Lumière, Matière et Interfaces (LuMIn) laboratory. She previously worked at Laboratoire Aimé Cotton (2013–2019) and Laboratoire de Photonique Quantique et Moléculaire (2002–2012). Her research spans multi-scale light-matter interactions in semiconductor heterostructures and hybrid halide perovskites for optoelectronics and photovoltaics. PhD in Quantum Physics (1988), Ecole Normale Supérieure de Paris (1986–1990) Research Focus: Optical spectroscopy of hybrid organic-inorganic semiconductors, quantum confinement effects, exciton-polariton physics, and synthesis of low-dimensional perovskites. Her work bridges fundamental studies of material properties and applied device development for solar cells and light-emitting technologies. Article Trends: Recent publications emphasize exciton dynamics in 2D perovskites strong coupling regimes in microcavities phonon-electron interactions photovoltaic efficiency optimization photoluminescence tuning via defects synthesis of stable hybrid materials Scientific Leadership: She co-founded the French Halide Perovskites Think Tank (HPERO) and leads the Friedel-Jacquinot federation. She organizes international conferences and summer schools on perovskite materials. Advising: Supervised 15+ PhD students/postdocs, including Hugo Levy-Falk (2020–2023) and Thomas Campos (2019–2022). Her team includes physicists and chemists across multiple laboratories. Grants: Funded by ANR, Labex Charmmmat, IPVF, DGA, and European projects like GOTSOLAR and HYTEC, covering photovoltaics, microcavity lasers, and material synthesis. Labs: Leads research at LuMIn (Ecole Normale Supérieure Paris-Saclay) and collaborates with international institutions. Her experimental facilities include UV-Vis-IR spectrometers, spin-coating systems, and cryogenic optical setups.
Dr. Quan Nguyen serves as a Lecturer in Mechatronics at the School of Mechanical and Mechatronic Engineering, University of Technology Sydney (UTS). His academic credentials include: PhD in Electrical Engineering, Griffith University (2021) MSc in Mechanical & Aerospace Engineering, University of Missouri (2017) Dr. Nguyen's research centers on MEMS sensors and actuators, semiconductor and nanostructure materials, and sensor networks for smart cities and harsh environments. He has authored over 30 high-impact journal publications in top-tier Scopus-indexed journals, demonstrating significant contributions to advanced sensing technologies. Analysis of his 2021-2025 publications reveals a consistent focus on piezotronic and photovoltaic effects in semiconductor heterojunctions (particularly 3C-SiC/Si and GaN systems), wafer bonding technologies for MEMS integration, and highly sensitive tactile/position detection systems. His work achieves record sensitivities (e.g., 70680 strain sensitivity, 603.65 mV/mm position sensitivity) through innovative material combinations and device architectures, with direct applications in harsh environment monitoring and smart infrastructure. No specific scientific awards are documented in available sources. Dr. Nguyen provides technological consultancy to industry partners including Dentroid, Geoinventions, and Samsung in Australia and Korea. He teaches Embedded Mechatronics Studio (41070) and maintains active research collaborations across semiconductor sensor development.
Miriam Serena Vitiello serves as Director of Research at the National Research Council of Italy (CNR) and Adjunct Professor of Condensed Matter Physics at Scuola Normale Superiore. She leads the THz photonics and optoelectronics group at CNR's Institute of Nanoscience, specializing in terahertz quantum cascade lasers, nanodetectors, and graphene-based photonics with applications in metrology and near-field imaging. Her academic foundation includes a PhD in Physics from the University of Bari (2006) and postdoctoral research at the same institution (2006-2009), complemented by international research visits to Delft University of Technology, Ludwig Maximilian University of Munich, and University of Paris VII. Vitiello's research focuses on experimental light-matter interactions in low-dimensional systems, particularly two-dimensional nanomaterials (graphene, phosphorene, van der Waals heterostructures, topological insulators). Her work bridges quantum optics , nanophotonics , and far-infrared photonics , yielding innovations in terahertz device physics through nanoscale engineering of electronic and optical properties. Analysis of her 15 most recent publications reveals dominant trends in terahertz quantum cascade laser development (frequency combs, random lasers, wire lasers), 2D-material-based detectors (black phosphorus, hBN heterostructures), and ultrafast terahertz techniques (saturable absorbers, near-field microscopy). Key subfields include topological insulator photonics, van der Waals heterostructure engineering, and quantum transport phenomena in nanoscale systems. Her scientific recognition includes: Frederic Volterra Medal 2020 (Italian Physical Society) Sapio Research and Innovation Award (2018) Guido Dorso International Research Award (2016) SPIE Early Career Award (2015) Sergio Panizza Prize (2012) Vitiello directs substantial research initiatives including an ERC Consolidator Grant (2016-2023), EU H2020 projects (EXTREME IR, MIR-BOSE, TeraApps), and the Graphene Flagship's THz working group. She coordinates the Balzan Research Project with Harvard University and serves on scientific councils for Italy's National Metrology Institute and CNR's Physics Department, with over 250 journal publications and 100+ invited conference presentations demonstrating her leadership. Her THz photonics and optoelectronics group pioneers terahertz device innovation through collaborations with CEITEC (Czech Republic), University of Regensburg (Mercator Fellowship), and international partners in the Graphene Flagship consortium, maintaining cutting-edge facilities for nanofabrication and terahertz characterization.
Catalina Gabriela MIHALCEA serves as an Assistant Researcher at the Laboratory of Atomic Structures and Defects in Advanced Materials (LASDAM) within the National Institute of Materials Physics. Her work focuses on advanced nanomaterials for gas sensing and photocatalytic applications, with particular expertise in metal oxide semiconductors including TiO 2 , SnO 2 , NiO, and WO 3 . Her research interests span gas sensing mechanisms (particularly for CO 2 , methane, acetone, and hydrogen), defect engineering in nanomaterials , and photocatalytic performance optimization . Key methodologies include hydrothermal synthesis, co-precipitation, and advanced characterization techniques such as EPR spectroscopy, TEM, and XRD. She investigates how morpho-structural properties, synthesis parameters, and environmental conditions (humidity, temperature) affect material performance. Analysis of her 15 most recent publications reveals a strong emphasis on in-field condition testing using computer-controlled Gas Mixing Systems, with significant contributions to understanding charge carrier trapping in phase-transforming TiO 2 , electrode geometry effects in SnO 2 sensors, and humidity-resistant sensing platforms. Her work demonstrates consistent innovation in sensor design and fundamental material behavior under operational conditions. She actively collaborates with researchers across multiple institutions, evidenced by co-authorship on publications spanning materials synthesis, characterization, and application testing. Her technical contributions include developing synthesis protocols for black TiO 2 with enhanced visible-light photocatalysis and optimizing WO 3 sensors for low-concentration acetone detection in high-humidity environments.
Professor Atsushi Takeuchi serves as Director of the Waseda Institute for Advanced Study (WIAS) since September 2024 and has been a Professor at Waseda University's Faculty of Science and Engineering since April 2002. His academic leadership includes previous roles as Senior Dean of Research Council (2020-2024), Senior Dean of the Faculty of Science and Engineering (2016-2020), and Dean of the School of Advanced Science and Engineering (2014-2016). Doctor of Science, Osaka University (1992) Graduate School, Division of Engineering Science, Osaka University (1983-1985) Faculty of Engineering Science, Osaka University (1979-1983) Professor Takeuchi's research focuses on Semiconductor Physics and Applied Physical Properties , with particular expertise in quantum structures, spin dynamics, and optoelectronic materials. His laboratory investigates carrier recombination dynamics, spin relaxation mechanisms, and the development of advanced semiconductor materials for photonic and electronic applications. His work bridges fundamental quantum phenomena with practical device applications, particularly in quantum dots, superlattices, and compound semiconductors. Analysis of Professor Takeuchi's recent publications reveals a strong focus on spin dynamics in semiconductor nanostructures , quantum dot physics , and optoelectronic materials . His research demonstrates expertise in time-resolved spectroscopy techniques to investigate carrier and spin relaxation processes across various semiconductor systems including GaAs, InGaAsP, and ZnO-based materials. A consistent theme is the investigation of how material structure and composition affect electronic and spin properties at ultrafast timescales. JSAP Fellow (2017) - The Japan Society of Applied Physics JSAP Paper Award (2004) IEICE Excellent Paper Award (1993) IEEJ Excellent Paper Presentation Award (1993) Professor Takeuchi has supervised numerous research projects and mentored students in semiconductor physics and quantum electronics. His laboratory has received substantial funding for research on spin-polarized electron sources, quantum dot structures, and advanced semiconductor materials. His collaborative work spans multiple institutions in Japan and internationally, contributing to both fundamental understanding and practical applications of semiconductor phenomena. As Director of the Waseda Institute for Advanced Study, Professor Takeuchi leads interdisciplinary research initiatives that connect semiconductor physics with other scientific domains. His laboratory maintains state-of-the-art facilities for molecular beam epitaxy growth, time-resolved spectroscopy, and spin-dependent measurements, supporting cutting-edge research in quantum materials and devices.
Prof Maziar Nezhad serves as Professor of Nanophotonics and Microsystems Engineering within the School of Science, Engineering, and Environment at the University of Salford. His academic career spans multiple prestigious institutions including Bangor University, RWTH Aachen University, and the University of California, San Diego (UCSD). He is actively affiliated with the Centre for Future Engineering research group at Salford, where he leads cutting-edge research in nanophotonic devices and microsystems. Professor Nezhad's research expertise centers on nanophotonics and microsystems engineering, with particular focus on silicon photonics, microelectromechanical systems (MEMS), and compound semiconductors. His work encompasses the development of nanofabrication techniques, diamond photonic devices, plasmonics, and III-V metal-cavity nanolasers. His recent publications reveal a strong emphasis on integrated photonics solutions for chip-scale optical communication, thermal microactuators, and advanced semiconductor laser technologies that push the boundaries of miniaturization. Analysis of his publication record from 2010-2024 shows consistent contributions across multiple subfields of nanophotonics, with particular emphasis on practical applications for optical communication systems, microscale actuation, and novel semiconductor laser designs. His work demonstrates a progression from fundamental device physics toward integrated systems solutions, with increasing focus on practical implementation challenges. Awards: EPSRC/UKRI Fellowship for developing microrobot technologies powered by light during his tenure at Bangor University Professor Nezhad has made significant contributions to both theoretical and applied aspects of nanophotonics. His research on silicon photonics plasma-modulators, metallo-dielectric nanolasers, and diamond waveguide structures demonstrates expertise spanning materials science, device physics, and practical implementation. His recent 2024 publication on integrated nanophotonic control of thermal bimorph microactuators indicates ongoing innovation in merging photonics with microelectromechanical systems. His work has strong relevance for next-generation optical communication systems, sensing applications, and integrated photonic circuits where miniaturization and efficiency are critical requirements.
Bridgette Maria Budhlall, Ph.D., is a Professor and Department Chair of Plastics Engineering at the University of Massachusetts Lowell's Francis College of Engineering. She holds a Doctorate in Polymer Science and Engineering from Lehigh University and a Bachelor's in Natural Sciences from the University of the West Indies. With 8 years of industrial experience at Air Products and Chemicals, Inc., her research bridges fundamental science and applied technology. Her expertise spans: Polymer colloids and soft matter Stimuli-responsive materials for drug delivery and biosensors Nanomanufacturing of biomedical devices and coatings Biodegradable shape-memory polymers Her publications focus on advanced materials for nanomedicine, organic electronics, and environmental applications, with recurring themes of colloidal assembly, polymer functionalization, and structure-property relationships in nanocomposites and stimuli-responsive systems. Awards & Honors: Mark and Elisia Saab Endowed Professorship (2011, 2012) INEST Fellow (2006) Ken Earhart Award (1998) Ticona Award (1998) She leads multiple grants including NSF-funded projects on nanomanufacturing ($300K) and bio-based plastics education ($200K), an Army grant for semipermeable membranes ($500K), and industry collaborations with Raytheon and Biosurfaces, Inc. She directs the Budhlall Polymer Colloids & Soft Matter Group , developing scalable technologies for biosensors, drug delivery, and smart coatings.
Prof. Dr. Donat Josef As is a Professor in the Department of Physics at the University of Paderborn’s Faculty of Science, leading the Optoelectronic Semiconductors group focused on Group III-Nitrides (GaN, AlN, InN). He is a member of the Center for Optoelectronics and Photonics (CeOPP) and heads the research area Optoelectronic Materials and Devices. Research Focus: Fabrication and characterization of cubic III-nitride semiconductors via molecular beam epitaxy (MBE), enabling advanced optoelectronic devices (e.g., field-effect transistors, quantum dot emitters, THz detectors). Notable Achievements: Developed the first field-effect transistor using cubic AlGaN/GaN and demonstrated single-photon emissions from cubic quantum dots up to 200 K. His recent projects include TRR 142 (Tailored Nonlinear Photonics) and ultrafast acoustics for light emission modulation. He has received an ERC grant for his groundbreaking work. His research intersects semiconductor physics, nanotechnology, and quantum photonics. Key Publications: Investigated dielectric properties of cubic GaN, remote epitaxy of nitrides on graphene-covered substrates, and many-body optical effects in AlGaN alloys. Prof. As teaches courses including Materials Physics and Analysis , Lab Project , and Halbleiterepitaxie (semiconductor epitaxy). His lab explores device structures for extreme environments and high-frequency applications.
Navaneetha Krishnan Ravichandran is an Assistant Professor in the Department of Mechanical Engineering at the Indian Institute of Science (IISc), Bangalore. His research focuses on nanoscale energy transport in materials, particularly in insulators, semiconductors, and metals. He leads the Nanoscale Energy Transport Lab (NETLab), which develops experimental and computational tools to study phonon and electron transport phenomena. Education: B.Tech./M.Tech., IIT Madras; M.S. and Ph.D., Caltech; Postdoc, Boston College Awards: Infosys Young Investigator (2022-2023), PMRF, Dow-Resnick Fellowship His research interests include thermal properties of crystalline solids, phonon-phonon interactions, and the development of high-thermal-conductivity materials for sustainable lighting. Recent work highlights the role of scattering selection rules in phonon dynamics and the optimization of materials like boron arsenide for enhanced thermal management. Key grants: SERB Core Research Grant, MATRICS, IQTI seed grant Lab facilities: Transient Grating experiments, access to IISc's supercomputing resources Navaneetha has advised multiple Ph.D. students and collaborates on interdisciplinary projects in quantum technologies and energy sciences.
Sergei Kalinin is the Weston Fulton Professor in the Department of Materials Science and Engineering at the University of Tennessee, Knoxville. He is affiliated with the Tickle College of Engineering and the Institute for Advanced Materials, Structures, and Integration (IAMM). His research focuses on atom-by-atom fabrication via electron beams, AI-driven microscopy, and nanoscale electromechanical phenomena. Kalinin holds a PhD from the University of Pennsylvania and has been recognized with prestigious awards, including the Blavatnik National Award for Young Scientists and the RD100 Award. He leads efforts in developing self-driving labs and integrating high-performance computing with microscopy. His work bridges machine learning, materials discovery, and automation, with a focus on ferroelectric systems and novel SPM techniques. Education: PhD, University of Pennsylvania Research Interests: Kalinin’s work spans advanced microscopy techniques, AI applications in materials science, and functional material design. He explores atom-scale fabrication ( e.g., using STEM), electrochemical reactivity on ferroelectric surfaces, and high-throughput characterization of perovskites and 2D materials. His lab develops automated workflows for microscopy and materials discovery, emphasizing Bayesian optimization and reward-driven algorithms. Scientific Contributions: Kalinin’s recent work includes pioneering “Atomic Forge” for defect engineering, machine learning for automated SPM, and understanding ferroelectric nanoscale behavior. He collaborates with Oak Ridge National Lab (ORNL) and has published extensively on self-driving labs, phase diagrams, and nanoscale domain dynamics. Grants & Labs: His funding supports initiatives in AI-driven microscopy, combinatorial libraries, and semiconductor innovation. Key platforms include the Design-to-Deployment Continuum for Microscopes and the Automated Materials Discovery Platform.
Orlando Hernandez is an Associate Professor in the Department of Electrical and Computer Engineering at The College of New Jersey. He holds a Ph.D. in Electrical Engineering from Southern Methodist University (2002), an M.S.E.E. (1993) and B.S.E.E. (1991) from the University of South Florida. Prior to his academic career, he held industry positions at Texas Instruments and Maxim Integrated Products from 1993-2003, serving in design management roles for imaging systems, ASIC development, and microcontroller technologies. His research focuses on high-performance VLSI architectures for computer vision applications, including color image segmentation, digital signal processing, embedded systems, and mixed-signal design. Key research areas include hardware acceleration for image compression algorithms, real-time traffic monitoring systems, autonomous robotics, and advanced encryption implementations. His work consistently bridges theoretical algorithms with practical hardware implementations. Professional affiliations include Senior Membership in the Institute of Electrical and Electronics Engineers (IEEE). He has secured multiple research grants including a $93,320 National Science Foundation award for image processing instrumentation and several industry-sponsored equipment grants from Texas Instruments and Xilinx.
Dr. Ruiyun Fu serves as Assistant Professor in the Department of Electrical and Computer Engineering within Mercer University's School of Engineering. Her expertise spans power electronics, renewable energy systems, and semiconductor device modeling. Education: PhD in Electrical Engineering, University of South Carolina (2013) MS in Electrical Engineering, Huazhong University of Science and Technology (2007) BS in Electrical Engineering, Huazhong University of Science and Technology (2004) Her research focuses on power semiconductor device modeling (particularly SiC-MOSFET & GaN-FET), grid-connected power converters , renewable energy conversion systems , and high-frequency resonant inverters . She has developed innovative approaches for DC network protection using Z-source circuit breakers and advanced wireless power transfer techniques. Analysis of her 15 most recent publications reveals strong emphasis on DC power network security (33% of articles), semiconductor device modeling (27%), and wireless power transfer optimization (20%). The work demonstrates consistent progression from fundamental device modeling toward grid integration challenges, with increasing focus on cybersecurity aspects in recent years. Dr. Fu maintains active leadership in professional societies including IEEE Power Electronics Society, IEEE Industry Applications Society, and IEEE Women in Engineering. She serves as regular reviewer for multiple IEEE transactions and conferences including ECCE, APEC, and PES-GM. Her educational contributions include pandemic-responsive laboratory adaptations and STEAM outreach initiatives for women, reflecting commitment to both technical innovation and engineering education advancement.
Thomas Ernst is a Chief Scientist and VP Research at CEA LETI since 2018, leading long-term research strategy and partnerships in microelectronics. He co-led the French Electronics Program (2022–2027) and previously worked at CEA-Leti within the Crolles Alliance (2002–2007), developing advanced transistor technologies. His career began with a research contract at STMicroelectronics (1997–2000) during his PhD at CNRS, where he published groundbreaking work on ultra-thin SOI transistors. Key Contributions: Development of SiGe/Ge transistors, strained SOI technology, and the first functional multichannel GAA transistor (now industry-standard for 2–3nm CMOS). Research Focus: Microelectronics, nanoelectromechanical systems (NEMS), CMOS scaling, and device modeling. Awards: CEA Fellow (2022), IEEE Senior (2015), and multiple IEEE/ESSDERC Best Paper awards.
Sara Bals is a Full Professor in the Department of Physics at the Faculty of Science, University of Antwerp, Belgium. She has held this position since 2018, following her progression from Assistant Professor (2007-2012), Associate Professor (2012-2014), to Professor (2014-2018). She serves as the head of EMAT (Electron Microscopy for Materials Science), which comprises 7 principal investigators, about 25 postdoctoral researchers, and more than 30 PhD students. Additionally, she coordinates the "Nanolab" Centre of Excellence, composed of 6 research groups. Dr. Bals earned her Bachelor's degree in Physics from the University of Antwerp (1995-1997) with Great Distinction, followed by a Master's degree (1997-1999) with Greatest Distinction. She completed her PhD in Physics at the same institution (1999-2003) with Greatest Distinction and special honors, focusing on superconducting thin films and tapes under Professor Gustaaf Van Tendeloo. From 2003-2004, she conducted postdoctoral research at the National Center for Electron Microscopy in Berkeley, USA, working with Professor Christian Kisielowski on electron tomography for materials science. Sara Bals is an internationally recognized expert in electron tomography and advanced electron microscopy techniques for nanomaterials characterization. Her research focuses on developing and applying electron tomography to study functional nanomaterials at the atomic scale. By combining state-of-the-art electron microscopy with advanced 3D reconstruction algorithms, her group measures the positions and chemical nature of individual atoms in nanomaterials. A significant advancement in her work involves performing these measurements under realistic conditions, including heating, liquid, or gas flow experiments to investigate nanomaterials under working conditions. Her research spans multiple areas including chiral nanomaterials, in situ 3D characterization of nano materials, atomic resolution electron tomography, quantitative electron tomography, and the study of nanoparticles and ultra-small clusters using aberration-corrected (S)TEM. Her publication record demonstrates a strong focus on advancing electron microscopy techniques and applying them to cutting-edge nanomaterials research. The most recent publications show increasing emphasis on chiral nanostructures, perovskite materials, in-situ characterization techniques, and advanced computational methods for image reconstruction. Her work bridges fundamental materials science with practical applications in energy conversion, catalysis, and optoelectronics. Dr. Bals has received numerous prestigious awards and honors for her contributions to science: 2021: ACS Nano Lectureship Award 2020: Elected member of the Royal Flemish Academy of Belgium for Science and the Arts (Natural Sciences) 2020: European Microscopy Society Award 2018-2024: ERC Consolidator Grant (PE5 - Synthetic Chemistry and Materials) 2017-2020: Francqui Research Professor 2016: Laureate of the Academy for Natural Sciences awarded by the Royal Flemish Academy 2015: Finalist of the Science Talent of 2015 competition 2013-2018: ERC Starting Grant (PE4 - Physical and Analytical Chemical Sciences) As principal investigator, Dr. Bals has secured significant research funding, including two European Research Council grants (Starting and Consolidator). She serves as promotor for numerous European and national projects. Her mentorship has guided the research of many PhD students and postdoctoral researchers within EMAT. Her group's expertise in nanoscale characterization is essential for investigating beam-sensitive materials like perovskites under working conditions. Dr. Bals leads the EMAT research group, a world-renowned center for electron microscopy of materials. The group specializes in advanced electron microscopy techniques, particularly electron tomography for 3D characterization of nanomaterials. As coordinator of the "Nanolab" Centre of Excellence, she oversees a collaborative effort involving 6 research groups focused on nanoscience and nanotechnology research.
