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Lukas EngView profile

Professor

• Photo-physics
• Nano-optics
• Plasmonics
• +5 more

Professor Lukas Eng leads the Chair of Experimental Physics / Photophysics at the Institute of Applied Photophysics, Dresden University of Technology. His research focuses on nanoscale characterization combined with advanced materials science, spanning multiple disciplines including photo-physics, nano-optics, plasmonics, and scanning probe microscopy. The Eng group maintains active collaborations and hosts numerous research projects including FERROIX, SKY, and SNOM. Research Group: Eng, King Available Projects: Nanoscopy of Topological Phases in Polaritonic Media Current PhD Projects: Engineering the band-structure in 2-dimensional quantum conductors Professor Eng's research interests center on the intersection of nanoscale characterization techniques and advanced materials science. His group specializes in studying ferroelectric materials, particularly lithium niobate and its domain wall properties. They employ sophisticated techniques including scanning near-field optical microscopy, Raman spectroscopy, and second harmonic generation to investigate quantum conductors and polaritonic media. Recent work has focused on domain wall conductivity in ferroelectric crystals, phonon polaritons in 2D materials, and nonlinear optical phenomena at the nanoscale. The Eng group's publication trends reveal a strong focus on ferroelectric materials, particularly lithium niobate and related compounds. Recent publications demonstrate expertise in domain wall physics, nanoscale characterization techniques, and 2D quantum materials. The group consistently applies advanced optical and scanning probe methods to investigate material properties at unprecedented resolution. Key research themes include electronic transport in domain walls, nonlinear optical phenomena, and phonon polariton behavior in van der Waals materials. Professor Eng actively supervises numerous PhD and Master's students, with a consistent output of high-quality theses in the fields of nanoscale characterization, ferroelectric materials, and optical microscopy. His group provides opportunities for Bachelor's, Master's, and PhD students across multiple research areas including FERROIX, SKY, and SNOM projects. The Eng group operates advanced laboratories for nanoscale characterization, including facilities for scanning probe microscopy, nonlinear optical microscopy, and spectroscopic analysis of materials. Their research infrastructure supports investigations into quantum materials, ferroelectric systems, and nanophotonic structures.

Madan NiraulaView profile

Professor

• Semiconductor Radiation Detectors
• CdTe Crystal Growth
• Perovskite X-ray Detectors
• +4 more

Professor Madan Niraula serves in the Department of Electrical and Electronic Engineering at Nagoya Institute of Technology's Graduate School of Engineering, where he leads semiconductor radiation detector research. His laboratory (SMD Lab) focuses on developing advanced materials for medical and industrial imaging applications. Doctor of Engineering, Shizuoka University (2000) Master's Degree, Shizuoka University (1997) B.E., Bangladesh University of Engineering and Technology (1993) B.Sc. in Biology, Tribhuvan University, Nepal (1987) Professor Niraula's research centers on semiconductor radiation detection technology, with particular expertise in CdTe crystal growth and perovskite-based X-ray detectors . His work addresses critical challenges in dislocation engineering, MOVPE epitaxy, and detector performance optimization for medical imaging applications. Recent investigations focus on halide perovskite single crystals and advanced annealing techniques to enhance radiation detection capabilities. Analysis of his publication record reveals consistent advancement in semiconductor detector technology, with increasing emphasis on perovskite materials since 2020 while maintaining core expertise in CdTe/Si heterostructures. His research demonstrates strong industry-academia collaboration through multiple patents and NEDO-funded projects. The Electrical Science and Engineering Promotion Awards (2012) 2004 Tokai Academic Promotion Prize Japan Society of Applied Physics Spring Meeting Award (2002) Professor Niraula has secured continuous research funding since 2003, including competitive Japanese scientific grants (Kakenhi) and industry partnerships with organizations like NEDO and the Nakatani Foundation. His laboratory maintains active collaborations with Brookhaven National Laboratory and international research institutions, evidenced by his committee roles in IEEE, SPIE, and the Applied Physics Society. Current projects focus on developing photon-counting X-ray detectors and improving CdTe growth techniques for medical imaging applications.

Zhe FeiView profile

Assistant Professor

• Nano-optical physics
• Low-dimensional materials
• Plasmonics
• +3 more

Zhe Fei is an Assistant Professor in the Department of Physics & Astronomy at Iowa State University. He holds a Ph.D. in Physics from the University of California, San Diego (2014), and B.S. (2006) and M.S. (2009) in Physics from Nanjing University. Prior to joining ISU, he worked as an Assistant Scientist at Argonne National Laboratory's Center for Nanoscale Materials. His research focuses on nano-optical physics in low-dimensional materials using advanced near-field techniques, particularly investigating graphene-based systems, exciton-polaritons, and plasmonic phenomena. Key tools include nano-infrared imaging, spectroscopy, and finite-element simulations. Research interests emphasize exploring light-matter interactions in 2D materials, electronic properties of graphene interfaces, and manipulating plasmons for optoelectronic applications. His work bridges nanoscale characterization with device-oriented applications, leveraging hyperbolic metamaterials and van der Waals heterostructures. Recent studies include gate-tunable polaritons in transition-metal dichalcogenides and hot-electron dynamics in graphene. Notable contributions include pioneering nano-optical imaging of epitaxial graphene on SiC, revealing doping inhomogeneities, and studying phonon-polariton coupling in layered systems. His group (ISU Nano-Optics Group) develops novel techniques for ultra-sensitive molecular characterization and nano-scale compositional mapping. No scientific awards are explicitly listed in the provided materials. Grants and advising details are not specified in the text. Laboratory activities focus on experimental nanophotonics and materials science, with emphasis on integrating near-field microscopy with theoretical simulations. Future directions involve advancing tunable plasmonic systems and exploring quantum phenomena in layered material heterostructures.

• Statistical Physics
• Condensed Matter Physics
• Biological Physics
• +6 more

Jack Lidmar is an Associate Professor in the Department of Physics at KTH Royal Institute of Technology. His research focuses on statistical physics, condensed matter physics, and biological physics, with emphasis on fluctuation phenomena in superconductors, phase transitions, quantum phase transitions, disordered systems, and the development of efficient Monte Carlo simulation methods. He has contributed to studies of superconducting nanostructures, spin glasses, and biological systems such as virus structural mechanics. Lidmar teaches several courses at KTH, including Computational Physics , Statistical Physics , and Quantum Information , and oversees multiple degree projects. His work integrates theoretical modeling with advanced simulation techniques, such as the Accelerated Weight Histogram (AWH) method, to explore rare events and free energy landscapes in materials and biological systems. Recent research highlights include investigations of superconducting nanostrips, phase transitions in two-dimensional materials, and the application of simulation methods to predict material properties like skin permeability. His interdisciplinary approach bridges condensed matter physics with computational biology and engineering applications.

Ioannis MastorakosView profile

Associate Professor

• Nanomaterials Science
• Computational Materials Science
• Mechanical Properties of Metallic Materials
• +4 more

Ioannis Mastorakos is an Associate Professor in the Mechanical & Aerospace Engineering Department at the Coulter School of Engineering & Applied Sciences , Clarkson University. He is also affiliated with the Center for Advanced Materials Processing (CAMP). His academic journey includes a B.Sc. in Physics (1994) and a Ph.D. in Engineering (2004) from Aristotle University of Thessaloniki, Greece. Prior to his current position, he held roles such as Visiting Assistant Professor and Clinical Assistant Professor at Washington State University’s School of Mechanical and Materials Engineering before joining Clarkson in 2014 as an Assistant Professor. His research focuses on nanomaterials science , particularly the mechanical properties and applications of nanoscale composite nanofoams and high entropy alloys. He employs molecular dynamics, Monte Carlo simulations, dislocation dynamics, and finite element analysis to study deformation mechanisms across length scales. Recent work includes multiscale modeling of nanofoams, dislocation patterning in aluminum, and the mechanical behavior of bivalve shells under predation. Key research trends in his articles emphasize multiscale modeling of metallic systems, high entropy alloys , nanofoam mechanics , and bio-inspired materials . His studies bridge atomic-scale phenomena with macroscopic material behavior, addressing challenges in energy absorption, structural resilience, and alloy design. Awards/Grants: Co-PI on NSF-CMMI-MEP 1634640 (2016-2019) for strengthening metallic nanofoams via ligament-scale design. Mastorakos advises on graduate research in materials science and collaborates on grants focusing on irradiation effects, nanocomposites, and additive manufacturing. His lab, part of Clarkson’s CAMP, integrates computational and experimental approaches to advance next-generation materials.

David ColeView profile

Professor

• Geochemistry
• CO2 Sequestration
• Nanogeoscience
• +3 more

David Cole is Professor and Ohio Research Scholar in Geochemistry at Ohio State University's College of Arts and Sciences. He directs the Subsurface Energy Materials Characterization and Analysis Laboratory (SEMCAL), employing advanced techniques like neutron scattering and NMR to study fluid-mineral interactions in energy-relevant systems. Research spans: Reaction mechanisms in minerals/fluids across scales CO2 sequestration in geological formations Shale gas system chemistry Nanoconfined fluid behavior Recent publications (2023-2025) predominantly focus on hydrogen storage optimization (40%), CO2-CH4 interactions (30%), and nanoconfinement effects (30%), with molecular simulations as the primary methodology. Article keywords show strong emphasis on adsorption phenomena, interfacial chemistry, and subsurface monitoring. Honors include fellowship status in three major scientific societies: Mineralogical Society of America, Geological Society of America, and American Association for the Advancement of Science. Secured funding from DOE Basic Energy Sciences and NSF for projects advancing sustainable energy solutions. Teaches graduate courses in nanogeoscience and subsurface characterization while serving in university governance through Arts and Sciences Senate roles.

Zlatko SitarView profile

Professor

• Wide Bandgap Semiconductors
• Material Growth Techniques
• Semiconductor Device Development
• +7 more

Zlatko Sitar is the Kobe Steel Distinguished Professor and Professor of Physics at NC State University, holding joint appointments in the Department of Materials Science and Engineering (College of Engineering) and the Physics Department at NCSU, as well as the University of Nagoya, Japan. He leads the WideBandgaps research laboratory and directs the Materials Research Center at NCSU. Research Focus His work centers on wide bandgap semiconductors (GaN, AlN) including crystal growth via halide vapor phase epitaxy, MBE, and MOCVD processes. Key achievements include pioneering III-nitride MBE with ECR plasma sources, commercializing AlN crystal growth (via HexaTech, Inc.), and advancing UV optoelectronics through device engineering. He has developed epi-ready wafers for deep-UV lasers/LEDs and invented lateral polar structures for novel devices like superjunction-based power electronics. Publications & Impact Recent research emphasizes defect analysis in AlN/GaN, Schottky diode optimization, and spintronic terahertz emission. Over 100+ publications span journals like Applied Physics Letters and IEEE Transactions, reflecting expertise in semiconductor characterization, ion implantation, and heterojunction design. Entrepreneurial Ventures Founded HexaTech, Inc. (AlN wafer production) Co-founded Adroit Materials (UV devices and GaN substrates) Awards & Recognition Kobe Steel Distinguished Professor title Labs & Collaborations His global network includes partnerships across four continents. The WideBandgaps lab and Materials Research Center serve as hubs for innovation in ultra-wide bandgap materials and devices.

Kristin PerssonView profile

Professor

• Materials Science
• Computational Materials Design
• Battery Materials
• +7 more

Kristin Persson is a Professor of Materials Science and Engineering at the University of California, Berkeley, where she also serves as Director of the Molecular Foundry. She is a Faculty Staff Scientist at Lawrence Berkeley National Laboratory, based in the Energy Sciences Area (ESA). Her research focuses on computational materials science for energy applications, leading the internationally recognized Persson Group and the Materials Project initiative. Professor Persson's research interests center on applying atomistic and first-principles computational methods coupled with high-performance computing and machine learning to advance materials for clean energy production and storage. Her group specializes in designing novel photocatalysts, multi-valent battery electrode materials, Li-ion battery electrode materials, polar materials, and liquid electrolytes. The Materials Project, which she directs, is a multi-national effort to compute the properties of all inorganic materials and provide this data and associated analysis algorithms free of charge, with the ultimate goal of drastically reducing the time needed to invent new materials for societal needs. Her recent publications reveal a strong trend toward data-driven materials discovery, with significant focus on battery materials (particularly zinc-ion and lithium-ion systems), sustainable materials design, and the development of computational frameworks for materials prediction. There's a clear emphasis on machine learning applications in materials science, as well as growing interest in circular economy approaches for materials and chemical recycling. Member of the National Academy of Engineers (NAE) 2024 Distinguished Scientist Fellow by the U.S. Department of Energy's Office of Science Foreign member of the Royal Swedish Academy of Sciences Fellow of the Materials Research Society Fellow of the American Physical Society (APS) Cyril Stanley Smith Award recipient Recognized by Web of Science as top 1% highly cited researcher Professor Persson has mentored numerous graduate students and postdocs, many of whom have received prestigious fellowships and awards. Her research is supported by significant grants from the Department of Energy, including through the Joint Center for Energy Storage Research (JCESR) and the Electrolyte Genome project. She has led several major computational initiatives that have been recognized with the Secretary of Energy Honor Award. The Persson Group operates within the Energy Sciences Area at Lawrence Berkeley National Laboratory, collaborating closely with the Molecular Foundry (which she directs) and maintaining strong connections with experimental groups at JCAP (Joint Center for Artificial Photosynthesis) and other DOE-funded centers. The group follows a public group handbook that emphasizes collaborative research practices and open science principles.

Yuji ZhaoView profile

Associate Professor

• Electronic Materials
• Advanced Devices
• Nanotechnologies
• +4 more

Dr. Yuji Zhao is an Associate Professor of Electrical and Computer Engineering at Rice University, leading the Wide bandgap Innovative Device Engineering (WIDE) Lab. His research focuses on electronic materials, advanced devices, and nanotechnologies, particularly wide bandgap semiconductors for energy efficiency, RF, power electronics, and quantum photonics. He holds a Ph.D. from UC Santa Barbara (2012) and a B.S. from Fudan University (2008). Education: Ph.D., UC Santa Barbara, ECE (2012) B.S., Fudan University, Microelectronics (2008) His research interests include GaN, diamond, gallium oxide, and their applications in power electronics, RF devices, sensors, and integrated photonics. Key achievements include 80+ journal papers, 90+ conference presentations, and 20+ patents. Notable awards include the 2019 U.S. Presidential PECASE Award, MIT TR35-China Award, and multiple grants. His lab explores materials science and device engineering for extreme environments (e.g., Venus), high-temperature operation, and novel optoelectronic systems. Recent work includes GaN-based transistors, diamond nanostructures, and ultrawide bandgap materials.

Jie ZhouView profile

Assistant Professor

• Two-Dimensional Materials
• MXenes
• Energy Storage
• +3 more

Jie Zhou is an Assistant Professor at the Department of Physics, Chemistry and Biology (IFM) of Linköping University, Sweden. His research focuses on two-dimensional (2D) materials, particularly MXenes and their parent MAX phases, with applications in energy storage, catalysis, and nanomedicine. He leads projects funded by the Wallenberg Initiative for Materials Science for Sustainability (WISE), exploring sustainable materials design for batteries and environmental applications. Research interests include atomic-scale design of layered materials, computational modeling of exfoliation processes, and synthesis of novel 2D materials through chemical methods. His work integrates theoretical predictions with experimental validation to advance material discovery. Recent publications highlight breakthroughs in pseudocapacitive cathodes for aluminum-ion batteries, MXene surface functionalization using antioxidants, and high-entropy MXene derivatives for energy storage. Collaborations involve interdisciplinary teams addressing challenges in materials synthesis and characterization. Affiliations: Materials Design (MDESIGN) research group at IFM Funding: WISE grants for sustainable materials projects

• Wide Bandgap Semiconductors
• Ultraviolet Optoelectronics
• Gallium Oxide (Ga2O3)
• +5 more

Dr. Fabien Massabuau is a Senior Lecturer in the Department of Physics at the University of Strathclyde, where he joined as a Chancellor's Fellow in September 2019. His research focuses on wide bandgap semiconductors for ultraviolet optoelectronic devices, with particular emphasis on α-Ga 2 O 3 and h-BN. Prior to his position at Strathclyde, Dr. Massabuau completed his PhD (2011-2015) and served as a post-doctoral researcher (2015-2019) at the Department of Materials Science and Metallurgy at the University of Cambridge. During his time at Cambridge, he developed a "multi-microscopy" methodology to study nanoscale features across multiple imaging platforms (AFM, SEM-CL, TEM), advancing understanding of defects in III-Nitride materials. Dr. Massabuau's research interests span wide bandgap semiconductors, ultraviolet optoelectronics, and the fundamental relationship between nanostructure and optical properties in semiconductor materials. His work has significant applications in UV photodetection, water quality monitoring, and radiation-resilient sensor technologies. He actively investigates gallium oxide variants (α, β, and κ phases) and hexagonal boron nitride, focusing on defect engineering and performance optimization for practical device applications. His recent publications demonstrate a strong focus on gallium oxide materials systems, with particular attention to crystal structure-property relationships, defect characterization, and device performance metrics. The research shows increasing integration of computational approaches with experimental characterization to optimize material properties. Dr. Massabuau has received numerous prestigious awards: Materials Young Investigator Award (2025) 2024 Emerging Leader in J. Phys. D: Appl. Phys. Nanoscale 2022 Emerging Investigator European Crucible Seed Funding Award for Nanostructure-enhanced Gallium Oxide UV photodetectors (2021) European Crucible Seed Funding Award for Developing new tools for evaluating nanoscale biological interactions (2021) 2021 Emerging Leader in J. Phys. D: Appl. Phys. As a Principal Investigator, Dr. Massabuau leads multiple research projects including "Gallium Oxide Optoelectronic Devices for Water Pollution Sensing (GOOD-Water)" and "Tuneable radiation-resilient (AlGa)2O3 UVC photodetectors." He serves on the committee for Doctoral Researcher Awards and is a member of the editorial board for SN Applied Sciences. With over 40 peer-reviewed articles, 2 book chapters, and 1 mobile application to his name, his work has accumulated more than 600 citations. Dr. Massabuau actively participates in the semiconductor research community through conference organization (including the upcoming "Ultra-wide bandgap oxides 2025" conference) and as an invited speaker at international venues focusing on defects in α-phase Ga 2 O 3 . His research group continues to advance the understanding and application of wide bandgap semiconductors for next-generation optoelectronic devices.

• Nuclear Materials
• Fracture Mechanics
• Hydrogen Embrittlement
• +2 more

Professor Mark Wenman is a Professor in Nuclear Materials at the Department of Materials, Faculty of Engineering, Imperial College London. He leads the EPSRC Centre for Doctoral Training in Nuclear Energy Futures and co-directs the Centre for Nuclear Engineering. His research focuses on nuclear engineering materials including fracture mechanisms, hydrogen embrittlement, irradiation damage, and multi-scale modeling of nuclear fuels and structural materials. His research interests span: Micromechanisms of fracture in nuclear materials Hydrogen embrittlement and corrosion mechanisms Irradiation damage in zirconium alloys and steels Multi-scale modeling from atomic to continuum scales Nuclear fuel performance and cladding integrity Professor Wenman's recent publications demonstrate a strong focus on computational materials science approaches to nuclear material degradation, including phase-field modeling of corrosion, discrete dislocation plasticity of hydride formation, and machine learning applications for materials characterization. His work consistently addresses fundamental mechanisms of material degradation in nuclear environments. He directs multiple research centers and consults for technical advisory groups including TAGSI, Core Materials Working Group, and the Fuels Working Group for the European Jules Horowitz reactor project.

Levent TrabzonView profile

Professor

• Nanomaterials
• Microfluidics
• Graphene Technology
• +2 more

Dr. Levent Trabzon is a Professor in the Department of Mechanical Engineering at Istanbul Technical University. His research focuses on nanomaterials and microfluidics, with significant contributions to graphene applications, nanocomposites, and lab-on-chip systems. He directs multiple TUBITAK-funded projects including 'Versatile Agricultural Applications of Quantum Dot-Enriched Hydrogel Nanocomposites'. Research domains include: Graphene synthesis and functional applications Microfluidic systems for biomedical diagnostics Carbon nanotube-reinforced nanocomposites Quantum dot-enabled technologies Recent publications demonstrate interdisciplinary innovation spanning materials science, biomedical engineering, and nanotechnology. Article trends show increasing focus on sustainable nanomaterials, cancer diagnostic platforms, and smart textile technologies. Awards: Technology for the Benefit of Humanity (2018) Invention Award (2019) Multiple graduation project prizes Lab facilities include advanced nanomaterial characterization equipment and cleanroom microdevice fabrication capabilities supporting 39 graduate theses.

Scott MistureView profile

Professor

• Materials Science
• Ceramics
• Energy Conversion
• +6 more

Scott Misture is the Inamori Professor of Materials Science & Engineering at Alfred University, leading the Inamori School of Engineering's MSE and Biomaterials programs. He holds a BS (1990) and PhD (1994) in Ceramic Engineering and Science from Alfred University. His research focuses on advanced ceramics for energy systems, particularly solid oxide fuel cells (SOFCs), photocatalysts, and layered oxide nanosheet composites. His group employs in-situ X-ray and neutron characterization to study material behavior under operational conditions. Key contributions include breakthroughs in glass sealants for SOFCs, exfoliated oxide nanosheets for hydrogen production, and defect-engineered materials for energy storage. Active in federal funding ($ millions from NSF/DOE), Misture collaborates with Brookhaven National Lab, DOE NETL, and industrial partners like Corning. His group includes ~30+ current/past students and postdocs, along with undergraduate researchers. Labs specialize in high-temperature SEM, synchrotron/X-ray diffraction, and in-operando spectroscopy. Labs/Teams: X-ray laboratory (Swavek Zdzieszynski), spectroscopy/mechanical labs (Jim Thiebaud), electrical properties lab (Fran Williams). Current projects address nuclear waste forms, solar hydrogen generation, and next-gen battery materials.

• Ferroelectric Materials
• Piezoelectric Materials
• Thin Films
• +3 more

Jesús Ricote is a Tenured Scientist at the Spanish National Research Council (CSIC) and Deputy Director of the Materials Science Institute of Madrid. His research focuses on ferroelectric and piezoelectric materials, thin film fabrication, and advanced material characterization techniques like piezoresponse force microscopy. Ricote has held roles such as Director of the CSIC Postgraduate Course on Frontiers in Materials Science and has contributed to prestigious platforms like the IEEE-UFCC Society. Education: Ricote earned a Degree in Physics (1990) and a PhD in Physics (1994) from the Universidad Complutense de Madrid. His postdoctoral work spanned institutions in France, the UK, and Spain, including Cranfield University and the Institut de Ciencia de Materiales de Madrid. Research Interests: Ricote’s work explores local functional properties of materials using scanning probe microscopy, low-temperature thin film deposition for flexible electronics, and magnetoelectric composite systems. His studies also address microstructural analysis, texture characterization, and the development of nanoscale functional materials. Publications: Co-author of over 100 scientific papers and book chapters, Ricote has edited volumes on ferroelectric materials and served as an associate editor for journals like Textures, Stress and Microstructure . His recent work emphasizes solution-based methods for sustainable material synthesis and multifunctional thin films. Supervision and Management: Ricote has supervised three PhD students and held leadership roles in CSIC, including Deputy Vice President for Internationalization (2012–2014). He currently chairs the Ferroelectrics Technical Standing Committee of the IEEE-UFCC Society. Labs and Teams: His research leverages advanced labs for thin film preparation, low-temperature processing, and piezoresponse force microscopy. Collaborative projects address challenges in flexible electronics and nanoscale material functionality.