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Jin Hong KimView profile

Assistant Professor

• Service Innovation
• Change Management
• Public Value Creation
• +3 more

Jin Hong Kim is an Assistant Professor in the Department of Political Science at Eastern Illinois University (EIU). She earned her Ph.D. in Public Policy and Management from The Ohio State University’s John Glenn College of Public Affairs in 2022, alongside a B.A. and M.A. in Political Science from Yonsei University in Seoul, South Korea. At EIU, Dr. Kim teaches courses such as Introduction to Public Policy, Public Budgeting, and Research Methods for Public Administration and Policy Research. Her research explores the intersection of service innovation, change management, and public value creation, particularly in the context of governments and public organizations adopting new management practices and technologies like Lean and Six Sigma. Her recent publications highlight interdisciplinary work, spanning both materials science (e.g., high-pressure electronic structure studies) and public administration (e.g., Total Quality Management in service delivery). Dr. Kim previously taught at Ohio State University’s Glenn College, instructing undergraduate and Masters in Public Administration (MPA) students on public management and policy formulation. Her ongoing research projects are detailed in her Curriculum Vitae, and she is based in Coleman Hall, Office 2325. She can be contacted at jhkim2@eiu.edu .

Barrett G. Potter, Jr.View profile

Professor

• Optical Materials
• Electronic Materials
• Photovoltaics
• +4 more

Barrett G. Potter, Jr. holds dual appointments as Professor of Materials Science and Engineering and Professor of Optical Sciences at the University of Arizona, where he has served since 2006. He currently acts as Associate Department Head for Materials Science and Engineering (2015–present) and previously held positions at Sandia National Laboratories as Technical Manager and Principal Member of the Technical Staff. His academic credentials include: PhD in Materials Science and Engineering, University of Florida (1991) MS in Materials Science and Engineering, University of Florida (1987) BS in Ceramic Engineering, New York State College of Ceramics at Alfred University (1985) Dr. Potter's research centers on advanced optical and electronic materials , with emphases on glass/ceramic systems for integrated photonics , photo-mediated 3D structure patterning , photovoltaic reliability , and energy materials degradation . His work bridges optically driven molecular assembly, nanocomposite optoelectronics, waveguide devices, and real-time 3D printing process control. His scientific recognition includes: Fellow of the American Ceramic Society Editor of the Journal of Non-Crystalline Solids Dr. Potter maintains leadership roles in the American Ceramic Society and Materials Research Society. His scholarly output comprises 100+ refereed publications, 10 book chapters, 100+ presentations (20 invited), and 2 patents, reflecting sustained contributions to materials science and optical engineering.

Enam ChowdhuryView profile

Associate Professor

• High-Intensity Laser Physics
• Material Science
• Femtosecond Laser Interaction
• +4 more

Enam Chowdhury is an Associate Professor of Materials Science and Engineering at The Ohio State University with joint appointments in Electrical and Computer Engineering and Physics. His research focuses on studying materials under extreme conditions induced by high and ultra-high intensity lasers, such as those used in the 400 TW SCARLET laser system at OSU's High Energy Density Physics (HEDP) Laboratory, which he led to completion in 2012. Academic Affiliations: Materials Science and Engineering, Electrical and Computer Engineering, Physics Key Research Areas: High-intensity laser-matter interactions, relativistic and non-perturbative optical phenomena, dynamic metamaterials Applications of his work span from next-generation particle accelerators and cancer therapy to planetary science, astrophysics, and laser micro/nano-machining. He also explores ultrafast non-linear optical properties and defect generation in materials using femtosecond pulses, particularly in mid-infrared wavelengths. His group is part of the AFRL-funded SPACE-MAT Center of Excellence (2024), a $5.5 million initiative to study material behavior in space environments. The Femto-solid Laboratory, which he leads, has produced notable graduates such as Dr. Ryan Siebenaller (PhD 2025), Dr. Emma DeAngelis (PhD 2025), and Dr. Michael Tripepi (PhD 2022), now at Hillsdale College. Former students include Dr. Noah Talisa (PhD 2020) at Johns Hopkins APL, Dr. Kevin Werner (PhD 2019) at BAE Systems, and Dr. Drake Austin (PhD 2017) in postdoctoral research at Agostini-DiMauro Group. Dr. Chowdhury collaborates with Ohio State faculty like Prof. Roberto Myers (NEON Lab), Prof. Michael Chini (Physics), and external institutions including Lawrence Livermore National Laboratory, Cornell University, and Colorado State University. His research has been featured in conferences like SPIE Laser Damage Symposium, International Conference on Ultra-Intense Lasers (Lindau), and LaserNetUS meetings.

• Solar Energy
• Photovoltaics
• Plasmonics
• +5 more

Vivian E Ferry is an Associate Professor in the Department of Chemical Engineering and Materials Science at the University of Minnesota's College of Science and Engineering. Her research focuses on advanced materials for energy applications, particularly in solar energy conversion and nanophotonic phenomena. She maintains an active research program with numerous ongoing projects and substantial publication output spanning over 15 years. Her research interests center on Solar Energy , Photovoltaics , Plasmonics , and Nanomaterials , with particular expertise in quantum dots, thin film technology, and metamaterials. Dr. Ferry's work bridges fundamental materials science with practical applications in renewable energy technologies, exploring light-matter interactions at the nanoscale to enhance solar energy harvesting and conversion efficiency. Analysis of her recent publications (2023-2025) reveals a strong focus on chiral optical phenomena, luminescent solar concentrators, metal-insulator transitions in oxide materials, and machine learning applications for spectroscopic analysis. Her work demonstrates a consistent trajectory toward increasingly sophisticated nanoscale optical engineering with practical applications in sustainable energy systems. Dr. Ferry has secured significant research funding from diverse sources including the National Science Foundation, Microsoft Corporation, and industry partners like First Solar. Her current projects include: OLED Cavity Tuning in Commercial Devices for Display Applications (2023-2025) Chiroptical properties of patterned nanocrystal solids (2021-2026) IRG-2: Mesoscale Network Materials (2020-2026) Modeling CdTe solar cells (2021-2022) She actively collaborates with researchers across disciplines, as evidenced by her participation in multi-investigator projects and numerous co-authored publications. Her research group produces both fundamental scientific insights and practical technological advancements in materials for renewable energy applications.

Lei XuView profile

Associate Professor

• linear and nonlinear nanophotonics
• optoelectronics meta-devices
• nanostructure-enabled low-carbon technologies (solar energy harvesting)
• +3 more

Lei Xu is an Associate Professor at the Department of Engineering, School of Science & Technology, Nottingham Trent University. He leads research in the Advanced Optics and Photonics Group (www.aoplab.com) and serves as Associate Editor for Nonlinear Optics in Frontiers in Photonics . PhD in Optics (2014), Nankai University, China Postdoctoral experience at Australian National University, University of New South Wales His research spans multiple areas of nanophotonics and meta-devices, including: Energy harvesting via resonant meta-optical systems (solar cell enhancement, infrared imaging) Flat optical devices using metasurfaces for advanced nanotechnology Bio-photonics applications in diagnostics and wearable sensors Tunable meta-devices for precision light manipulation Recent publications focus on high-Q resonators, quasi-BIC states, and nonlinear frequency generation in dielectric platforms. He contributes to editorial boards of journals like ACS Nano and Nano Letters .

Cuifeng YingView profile

Senior Lecturer

• Nanopore Technology
• Single-Molecule Sensing
• Plasmonic Nanotweezers
• +4 more

Cuifeng Ying serves as a Senior Lecturer in Electrical Engineering within the Department of Engineering at Nottingham Trent University's School of Science and Technology. She leads research in the Advanced Optics and Photonics Group (AOP Lab), specializing in cutting-edge nanopore and plasmonic technologies for single-molecule analysis. Her academic foundation includes: Ph.D. in Physics from Nankai University (2013), developing photonic crystals and plasmonic nanocavities for biosensing Postdoctoral research at Nankai University's Centre for Nanoscale Science and Technology on single-molecule nanopore sensing Postdoctoral position with Prof. Michael Mayer at the Adolphe Merkle Institute, University of Fribourg Dr. Ying's research pioneers solid-state nanopore fabrication and plasmonic nanotweezers for real-time monitoring of unmodified protein dynamics. Her work enables fingerprinting of individual proteins through innovative surface functionalization methods and data analysis algorithms, with direct applications in disease mechanism studies and biosensor development. She bridges nanotechnology, biophysics, and electrical engineering to solve fundamental challenges in molecular characterization. Analysis of her 15 most recent publications reveals consistent focus on advancing nanopore technology (60% of works) and plasmonic biosensing (40%), with growing integration of machine learning for data analysis. Her research spans fundamental nanofluidics to applied biomedical diagnostics, evidenced by collaborations with institutions in Switzerland, Australia, and India. Her scientific recognition includes: Academy of Medical Sciences Springboard Fellowship (2025) for "Dynamic Profiling of Individual, Unmodified Intrinsically Disordered Proteins using Optical Nanotweezers" As Principal Investigator, Dr. Ying secured the £125k AMS Springboard Award (2025-2027) and £12k Royal Society International Exchanges grant (2025-2027) with Nagaoka University of Technology. She co-leads the UKIERI-SPARC India collaboration (£60k, 2024-2025) and contributes to major projects including the Royal Society Wolfson Fellowship (£250k) and UKRI Future Leaders Fellowship extension (£567k). Within the AOP Lab, she directs the bio-photonics stream developing ultrasensitive sensors capable of single-protein detection, with recent breakthroughs in optical nanotweezers for protein disassembly kinetics.

Tadeusz MiruszewskiView profile

Assistant Professor

• Perovskite
• Strontium titanate
• Electrical conductivity
• +7 more

Dr. Tadeusz Miruszewski serves as an Assistant Professor at the Institute of Nanotechnology and Materials Engineering within the Faculty of Applied Physics and Mathematics at Gdańsk University of Technology. His research focuses on advanced ceramic materials for energy applications, with particular emphasis on electrical, thermoelectric, and protonic properties of complex oxide systems. His primary research interests include: Perovskite-based materials and derivatives Triple and mixed conducting oxides High entropy oxides for energy conversion Proton conduction mechanisms in ceramic electrolytes Thermoelectric properties of multicomponent systems Electrochemical characterization methodologies Dr. Miruszewski's recent publications reveal a strong research trajectory in thermoelectric and electrical properties of novel multicomponent oxide systems, particularly those based on barium cerate-zirconate frameworks. His work frequently involves development of specialized electrochemical measurement techniques, including modifications of the Hebb-Wagner polarization method. His research has significant implications for solid oxide fuel cells, electrolyzers, and other electrochemical energy conversion devices, with applications spanning from protonic conductors to thermoelectric energy harvesting. He currently manages several significant research projects: ONTHERM: Optimization of novel thermoelectric materials based on Mg-Ag-Sb-Cu-Bi high-entropy alloys (2025-07-29) POPCECT: Positrode Optimization for Protonic Ceramic Electrochemical Cells Technology (2022-06-14) Thermoelectrical properties of perovskite-structure high entropy oxides (2021-09-16) Dr. Miruszewski actively supervises student research projects and teaches numerous courses across materials physics, nanotechnology, and electroceramics at multiple academic levels at Gdańsk University of Technology, demonstrating strong commitment to academic mentoring and education in advanced materials science.

• Nuclear materials chemistry
• Experimental thermodynamics
• Computational thermodynamics
• +9 more

Dr. Anna Louise Smith is an Associate Professor in the Reactor Physics and Nuclear Materials section at the Radiation Science and Technology department of Delft University of Technology (TU Delft). She is a physical chemist and materials scientist specializing in nuclear materials, with expertise in both experimental and computational approaches to studying advanced nuclear fuel systems. Dr. Smith earned her "diplôme d'ingénieur" from Chimie ParisTech in 2011, conferring a Master of Science in Chemistry and Chemical Engineering. She simultaneously completed an M.Phil. in Advanced Chemical Engineering from the University of Cambridge. She received her PhD in Materials Science and Metallurgy from Cambridge in 2015, after spending three years at the Joint Research Centre in Karlsruhe, Germany, where she developed expertise in nuclear fuel chemistry and chemical thermodynamics of actinide materials. Her research focuses on the chemistry of advanced nuclear fuels, including ceramics (oxides) and molten salts (fluorides and chlorides), with particular interest in structure-property relationships. She combines experimental and computational studies to investigate physico-chemical properties from atomic to macroscopic scales, with applications to next-generation nuclear reactor technologies emphasizing safety and sustainability. Her current interests include the chemistry of fission products in oxides and molten salts, interaction chemistry between fuel, coolant, and cladding materials, and corrosion issues at high temperatures in nuclear reactor environments. Analysis of Dr. Smith's recent publications (2022-2025) reveals a strong focus on thermodynamic properties of molten salt systems, particularly those relevant to nuclear fuel cycles. Her work spans fundamental studies of actinide chemistry in molten fluorides and chlorides, corrosion mechanisms between molten salts and structural materials, and the development of thermodynamic models for complex multi-component systems essential for molten salt reactor design. She has made significant contributions to understanding the behavior of thorium-based fuel systems and corrosion products in high-temperature environments. Dr. Smith has established a research team and laboratory at TU Delft specifically designed for handling uranium and thorium materials. Her work contributes to several major European projects focused on advanced nuclear technologies, including the MIMOSA and ENDURANCE projects that explore the safety and performance of molten salt reactors for deployment in the European Union. She collaborates extensively with researchers across Europe and has published over 50 research outputs including articles, book chapters, and review papers.

Wolfgang ZeierView profile

Professor

• Solid-State Batteries
• Solid Electrolytes
• Materials Science
• +6 more

Professor Wolfgang Zeier leads a prominent research group in the Department of Chemistry at the University of Muenster, Germany, specializing in solid-state battery materials and solid electrolytes. His research spans materials synthesis, characterization, and electrochemical analysis with a focus on sulfide and halide-based solid electrolytes for lithium and sodium batteries. The Zeier group employs a comprehensive suite of analytical techniques including X-ray diffraction, electron microscopy, thermal analysis, and electrochemical methods to investigate structure-property relationships in battery materials. Zeier's research interests center on solid electrolytes, particularly argyrodite-type materials, NASICON structures, and halide conductors. His group investigates ionic transport mechanisms, interfacial phenomena in solid-state batteries, and structure-property relationships in ion-conducting materials. Recent work has focused on understanding how microstructure, crystal chemistry, and defects influence ionic conductivity and battery performance. The group has made significant contributions to understanding thermal transport in solid electrolytes and developing strategies to enhance ionic conductivity through chemical substitution. The Zeier group maintains extensive instrumentation for materials characterization, including multiple X-ray diffractometers, electron microscopy, thermal analysis equipment, and electrochemical testing systems. They have published extensively on solid electrolyte design, with particular emphasis on argyrodites, NASICON materials, and halide conductors. Their research has important implications for the development of safer, higher-energy-density solid-state batteries. Professor Zeier's group actively collaborates with other institutions and participates in major research initiatives including the Helmholtz Institute Münster FESTBATT competence cluster and the BACCARA research school. They offer opportunities for PhD and postdoctoral researchers interested in solid-state battery development, particularly in the area of solid electrolytes and solid-state batteries.

Xin XieView profile

Research Fellow

• Topological Photonics
• Deep Learning
• Quantum Electrodynamics
• +3 more

Xin Xie is a Schmidt AI in Science Postdoctoral Fellow affiliated with the Michigan Institute for Data & AI in Society (MIDAS) at the University of Michigan. Their research bridges topological photonics, deep learning, and quantum electrodynamics, focusing on designing novel states via topological optical structures and investigating light-matter interactions in 2D semiconductor materials. Education: Ph.D. in Physics, Institute of Physics, Chinese Academy of Sciences (2022) B.S. in Physics, Zhejiang University (2015) Research interests center on topological photonics , leveraging deep learning to engineer optical structures and explore quantum phenomena like exciton-polariton transport and strong light-matter coupling . Their work integrates machine learning with quantum electrodynamics for applications in nanophotonics and quantum devices. Recent publications highlight advancements in 2D photonic crystals , cavity Floquet engineering , and topological corner states , emphasizing their interdisciplinary approach combining theoretical physics , materials science , and AI-driven optimization . Scientific Awards: Schmidt AI in Science Postdoctoral Fellowship Michigan Data Science Fellowship Postdoctoral Affiliates Program Xin collaborates with mentors across multiple disciplines: Gongjun Xu (Statistics, Psychology), Hui Deng (Physics, EECS), and Yang Chen (Statistics). Contact via xiexin@umich.edu .

Aleksandra VojvodicView profile

Professor

• Computational Materials Design
• Surface Science
• Catalysis
• +3 more

Aleksandra Vojvodic serves as Professor in the Department of Chemical and Biomolecular Engineering at the University of Pennsylvania and Director of the Penn Institute for Computational Science (PICS). Her research program centers on computational materials design for energy applications, utilizing theoretical frameworks to model surface and interface properties of complex materials. Her lab specializes in developing predictive models for chemical transformations and energy conversion processes, with demonstrated success in catalyst discovery. Key research thrusts include computational surface science of 2D materials (particularly MXenes), mineral carbonation for carbon capture, electrocatalysis for hydrogen evolution and water splitting, and stability mechanisms of nanomaterials under operational conditions. Recent work integrates machine learning potentials with molecular dynamics to unravel complex reaction pathways. Analysis of her 2022-2025 publications reveals dominant focus areas: MXene oxidation behavior (23% of recent work), mineral carbonation strategies (17%), and electrocatalyst design for ammonia synthesis and hydrogen production (30%). Her methodology consistently combines first-principles simulations with experimental validation, emphasizing industrially relevant conditions like aqueous environments and high-temperature operations. Vojvodic leads the Vojvodic Lab focused on computational materials discovery and co-founded 'The Highly Operational Team (HOT)' for f-Block materials research. Through PICS leadership, she oversees university-wide computational science initiatives spanning quantum materials, energy systems, and climate modeling.

Ernest PastorView profile

Researcher

• Photocatalysis
• Ultrafast Dynamics
• Solid-State Physics
• +4 more

Ernest Pastor is a CNRS Researcher at the Institute of Physics of Rennes (Materials and Light Department), University of Rennes. His work focuses on understanding electronic and structural dynamics in functional solids, particularly for photocatalytic and phase-change applications. He employs ultrafast optical and X-ray methods under in situ conditions to study defect interactions, polaron formation, and light-controlled charge transport. B.Sc. in Chemistry, University of Valencia Ph.D. in Photochemistry, Imperial College London Research Interests: His studies bridge ultrafast dynamics in solids, defect engineering, and optical control of electrochemical interfaces. Key areas include: Tracking reactive intermediates on disordered surfaces Understanding polaron formation timescales Manipulating defects with laser pulses Probing light-induced phase transitions Optimizing charge carrier lifetimes in oxides Scientific Awards: Recipient of the ERC Starting Grant (2022) for light-controlled defect dynamics in energy materials.

Ruby Nandini GhoshView profile

Associate Professor

• Silicon Carbide
• Hydrogen Sensors
• Oxygen Sensing
• +4 more

Ruby Nandini Ghosh serves as a Fixed Term Associate Professor in the Department of Physics & Astronomy at Michigan State University's College of Natural Science, with an additional appointment as Adjunct Associate Professor in the Department of Electrical and Computer Engineering within the College of Engineering. Dr. Ghosh earned her doctorate in applied and engineering physics from Cornell University, with graduate work in solid state physics and electrical engineering. She completed postdoctoral research at the National Institute of Standards and Technology and previously worked at Bell Laboratories in New Jersey. Her research program spans three interconnected domains . First, she investigates silicon carbide semiconductor devices for high-temperature applications, having developed catalytic gate hydrogen sensors with millisecond response at 600°C capable of continuous operation for months in power plant environments. Second, her work on optical oxygen sensing leverages metal-halide clusters whose phosphorescence is quenched by oxygen, enabling applications from aquaculture monitoring to biomedical imaging. Third, she develops chemical signatures of combustion products to create remote fire monitoring systems for first responders. Her approach consistently translates fundamental physics into practical sensing solutions. Dr. Ghosh's publication record reveals an evolution from fundamental materials research toward increasingly applied sensor development. Early work established the physics of silicon carbide interfaces, which matured into specific power plant monitoring applications. Later research pivoted to optical methods for oxygen detection in diverse environments, while recent publications extend these principles to fire science. Throughout, she maintains focus on creating robust, field-deployable technologies that solve real-world problems in energy, environment, and public safety. $600,000 federal grant from National Energy Technology Laboratory (Department of Energy, 2002) for fiber optical micro-detectors $914,000 grant from Michigan 21st Century Jobs Fund (2006) for dissolved oxygen monitoring in aquaculture Dr. Ghosh actively pursues commercialization through Opti O2 LLC, founded in fall 2011. This venture aims to bring her oxygen sensor technology to multiple markets including aquaculture, biomedical research, beverage production, and environmental monitoring. Her interdisciplinary team includes collaborators from Chemistry, Fisheries and Wildlife, and Materials Science departments at MSU, demonstrating her commitment to translating academic research into practical solutions.

Mehdi PouraghaView profile

Associate Professor

• Geomechanics
• Constitutive Modeling
• Granular Materials
• +7 more

Mehdi Pouragha is an Associate Professor in the Department of Civil and Environmental Engineering at Carleton University's Faculty of Engineering and Design in Ottawa, Canada. He holds a BSc and MSc from Sharif University of Technology in Iran and a PhD from the University of Calgary. His academic career focuses on advanced geomechanics research with applications in both theoretical and practical engineering contexts. Dr. Pouragha's research spans multiple interconnected areas within geomechanics, with particular emphasis on constitutive modeling of geomaterials, micromechanics of granular materials, thermo-hydro-mechanical behaviors, and computational geomechanics. His work integrates theoretical approaches with advanced numerical methods to address complex problems in soil mechanics, permafrost engineering, and unsaturated soil behavior. His research program bridges fundamental micromechanical understanding with practical engineering applications, particularly in cold regions and climate change adaptation contexts. Analysis of Dr. Pouragha's recent publications reveals a strong trend toward multiscale modeling approaches that integrate discrete element methods with continuum mechanics. His work increasingly incorporates machine learning techniques to enhance computational efficiency while maintaining physical accuracy. The research spans both fundamental theoretical developments in constitutive modeling and practical applications in permafrost engineering, tailings management, and soil-structure interaction problems. His publications consistently demonstrate a focus on connecting microscale mechanisms to macroscale material behavior. Dr. Pouragha teaches several core civil engineering courses including Geotechnical Engineering, Fundamentals of Geomechanics, Numerical Methods in Geotechnical Engineering, and Professional Practice. His teaching portfolio reflects his research expertise while providing students with both theoretical foundations and practical engineering skills.

Kevin KittilstvedView profile

Professor

• Inorganic Materials Chemistry
• Nanocrystal Synthesis
• Semiconductors
• +4 more

Professor Kevin Kittilstved is a faculty member in the Department of Chemistry at Washington State University. His research focuses on chemically controlling the properties of inorganic materials through colloidal synthesis and advanced spectroscopic techniques. He earned his B.S. in Chemistry from Gonzaga University (2001), Ph.D. from the University of Washington (2006), and completed postdoctoral studies at the University of Washington (2010) and Université de Genève (2006–2010). Research interests include nanocrystal synthesis, semiconductor doping, and electronic structure analysis using techniques like X-ray diffraction and magneto-optical spectroscopy. His work explores applications in energy storage, electronics, and materials design. Key contributions include studies on ZnO nanocrystals, SrTiO3 systems, and molecular nanomagnets. Publications emphasize tunable electronic properties, dopant effects, and nanocrystal design. Advising has prepared students for careers in academia, industry, and engineering. His Kittilstved Lab supports interdisciplinary exploration of functional materials.