جست‌وجوی استاد و پژوهشگر

Chuanbing Tangمشاهده پروفایل

استاد

• Sustainable Biomass Chemistry
• Biomaterials
• Renewable Chemicals
• +۷ مورد دیگر

Dr. Chuanbing Tang is a Carolina Distinguished Professor at the University of South Carolina, holding the SmartState Endowed Chair in Polymer Nanocomposites and serving as Director of the NSF Center for Polymers for a Circular Economy (CCI Phase I). His research spans multiple interdisciplinary fields at the intersection of polymer chemistry, materials science, and biomedical engineering. Dr. Tang's research focuses on three primary areas: sustainable biomass chemistry and biomaterials, organometallics and metallopolymers, and polymers for dielectric energy storage. His work in sustainable chemistry has addressed the transformation of hydrocarbon-rich biomass into sustainable chemicals, bioplastics, elastomers, and biomaterials. He has pioneered the use of resin acids, plant oils, fatty acids, and terpenes as renewable feedstocks for polymer synthesis. In the antimicrobial field, his research has discovered natural resin acid-derived cationic compounds and polymers that effectively kill both Gram-positive and Gram-negative bacteria while maintaining low cytotoxicity to mammalian cells. His research group has produced over 200 publications that have significantly advanced the fields of sustainable polymers, metallopolymers, and antimicrobial materials. His work has been recognized with numerous prestigious awards including the Presidential Early Career Award for Scientists and Engineers (PECASE), Fellow of the American Chemical Society, and Fellow of the American Association for the Advancement of Science (AAAS). Dr. Tang serves as Senior Editor for Progress in Polymer Science and has held various editorial positions for leading polymer journals. He is actively involved in mentoring students and has received the Distinguished Undergraduate Research Mentor Award from the University of South Carolina. Fellow, American Chemical Society (2024) Principal Investigator, NSF Centers for Chemical Innovation Phase I Award (2023) Special Creativity Award, National Science Foundation (2022) Fellow, American Institute for Medical and Biological Engineering (AIMBE) (2021) Fellow, American Association for the Advancement of Science (AAAS) (2020) Presidential Early Career Award for Scientists and Engineers (PECASE) (2017) Dr. Tang's research group maintains state-of-the-art laboratory facilities across two locations (Horizon I and GSRC buildings) with comprehensive equipment for organic polymer synthesis and materials characterization. His work bridges fundamental polymer chemistry with practical applications in sustainability, healthcare, and energy storage, making significant contributions to the development of next-generation renewable polymers and advanced functional materials.

• Plasma Catalysis
• Materials Synthesis
• Carbon Dioxide Reformation
• +۷ مورد دیگر

Maria de Lourdes Carreon Garciduenas serves as Associate Professor in the Ralph E. Martin Department of Chemical Engineering at the University of Arkansas College of Engineering. Her research program focuses on developing plasma processing as a competitive alternative for the electrification and decentralization of chemical processes, with particular emphasis on sustainability and addressing climate change challenges. Her educational background includes: B.S. Chemical Engineering, Universidad Michoacana, 2007 M.S. Chemical Engineering, Universidad Michoacana, 2010 Ph.D. Chemical Engineering, University of Louisville, 2015 Dr. Carreon's research interests center on plasma catalysis and materials synthesis for environmental and energy applications. She leads investigations into rational design of porous materials at different scales, including zeolites, mixed metal oxides, nanowires, nanotubes, thin films, graphene, and MOFs. Her work focuses on tailoring these materials to achieve unique surface interactions with non-thermal plasma, with applications in ammonia synthesis, carbon dioxide reformation, and carbamate production. She has pioneered approaches using plasma catalysis as an alternative for electrification of chemical processes, with recent emphasis on converting greenhouse gases more sustainably. Analysis of her recent publications reveals a strong focus on ammonia synthesis through plasma catalysis, CO2 conversion technologies, and innovative reactor designs. Her research demonstrates how plasma processing can operate at lower temperatures with reduced scale and complexity compared to conventional methods, potentially enabling decentralized chemical production. The work increasingly integrates computational modeling with experimental approaches to understand reaction mechanisms at the molecular level. Dr. Carreon has received significant recognition for her work: NSF CAREER Award (nearly $540,000 over five years) Two Kokes Awards Conn Center Fellowship award As part of her NSF CAREER award, she conducts STEM outreach for Girl Scouts, providing immersive experiences with hands-on activities to foster early interest in science, technology, engineering, and mathematics. Her research group receives funding from multiple sources to support work in plasma catalysis and materials synthesis, with current projects focused on CO2 utilization and sustainable chemical production. Dr. Carreon actively collaborates with researchers across disciplines and institutions, serving as an editor for IOP SciNotes and as an active member of Mexico's National Science Council (CONAHCYT). The Carreon Research Group operates within the Ralph E. Martin Department of Chemical Engineering at the University of Arkansas, utilizing specialized equipment for plasma processing and materials characterization. The group's work aligns with the department's focus areas in energy and sustainability, contributing to the university's broader research mission in addressing global challenges through chemical engineering innovation.

• Organometallic Chemistry
• Catalysis
• Inorganic Chemistry
• +۶ مورد دیگر

Professor José Tomás Cuenca Agreda is a distinguished University Professor in the Department of Organic Chemistry and Inorganic Chemistry at the Faculty of Pharmacy, University of Alcalá (UAH). With a career spanning several decades, he has established two major research lines: Sustainable Catalytic Processes with Organometallic Compounds and the Design, Interaction and Synthesis of Bioactive Compounds. His research has been supported by numerous grants from the University of Alcalá, the Ministry of Economic Affairs and Digital Transformation, and the Community of Madrid. Professor Cuenca Agreda's research interests focus on organometallic chemistry, particularly titanium-based systems, with applications in sustainable catalysis and medicinal chemistry. His work includes activation of CO 2 and other small molecules, C-H bond activation, development of catalysts for polymerization processes, and synthesis of metal-based compounds with potential anticancer activity. His research bridges fundamental organometallic chemistry with practical applications in sustainable chemistry and pharmaceutical development. Analysis of his recent publications (2018-2020) reveals a strong focus on titanium and aluminum-based catalysts for polymerization processes, chiral complexes for asymmetric catalysis, and water-soluble metal complexes with biological activity. His work demonstrates continued innovation in catalyst design, with particular attention to sustainability and potential biomedical applications. Professor Cuenca Agreda has secured significant research infrastructure for his group, including a 400 MHz NMR spectrometer (2019) and various other equipment through multiple infrastructure grants. His research group maintains active collaborations with other departments at UAH and with external research institutions. His laboratory environment supports advanced synthesis of air-sensitive organometallic compounds, catalyst testing, polymerization studies, and biological evaluation of potential therapeutic compounds. Students in his group gain experience with state-of-the-art characterization techniques and participate in national and international conferences.

• Activation of Small Molecules
• Organometallic Chemistry
• Molecular Inorganic Synthesis
• +۳ مورد دیگر

Dr. Cristina Santamaría Angulo serves as Full Professor in the Department of Organic Chemistry and Inorganic Chemistry at University of Alcalá, where she coordinates the Metalocubanos - Metallocubanes research group. Based in the Pharmacy Building, she teaches General Chemistry and Inorganic Chemistry for Pharmacy programs and advanced catalysis courses for the Chemistry for Sustainability and Energy Master's program. Her research centers on molecular activation of small molecules using multinuclear transition metal complexes, with particular focus on: Dinitrogen functionalization as sustainable alternative to Haber-Bosch process Synthesis and reactivity of metal sulfide/oxide/nitride clusters (Ti, Ta, Nb) Development of regioselective catalysts for alkyne cyclotrimerization CO 2 /epoxide copolymerization under ambient conditions Mechanistic studies of intermetallic cooperation in bond activation Current research is supported by multiple grants including University of Alcalá and Comunidad de Madrid funding (2022-2023), enabling acquisition of critical infrastructure such as glove boxes and advanced spectrometers. Her group maintains strong collaborative ties within the university's chemistry department, particularly with Professors Mena Montoro and Martín Alonso. The Metalocubanos group provides comprehensive training in synthetic inorganic chemistry, structural characterization, and catalytic testing, preparing students for careers in sustainable chemistry research through hands-on experience with state-of-the-art equipment and participation in international conferences.

• Green Chemistry
• Sustainable Chemical Processes
• Biomass Valorization
• +۴ مورد دیگر

Massimo Migliori serves as Associate Professor in Industrial and Technological Chemistry at the University of Calabria's Department of Environmental Engineering (DIAm), where he leads research in sustainable chemical processes and green chemistry. His institutional roles include membership in ANVUR's national evaluation body (GEV09) and prior service on the University Academic Senate (2012-2021). Research focuses on biomass valorization through supercritical water gasification, nanomaterial development for bio-fuel production, biogas purification via membrane separation, and waste plastic upcycling . Key methodologies integrate pilot-scale process engineering with nanomaterials characterization, emphasizing circular economy applications. His work targets industrial implementation through strong industry partnerships. Recent publications (2024-2026) demonstrate concentrated expertise in zeolite catalysis for biomass conversion, with 60% of output addressing acidity control in ZSM-5 for olefin production and biogas upgrading. Trends show increasing integration of techno-economic analysis using industrial data and advanced materials characterization for gas storage applications. Active funding includes EU M-ERA.NET project BIOVALUE (2019-present) and industry collaboration with TECHFEM S.p.A. Current projects span biogas upgrading (SYNREATTORE), PVC recycling (PVC UpCycling), and Italy-China biowaste conversion (B2CLIF). These provide substantial resources for graduate research and industrial technology transfer. The Chemical Engineering Catalysis and Sustainable Processes laboratory operates pilot-scale facilities for supercritical water gasification and membrane separation, enabling direct validation of research concepts for biogas grid injection and waste plastic recycling. This infrastructure supports strong industry-academia collaboration on implementable green chemistry solutions.

• Heterogeneous Catalysis
• Functional Materials
• Porous Materials
• +۶ مورد دیگر

Dr. Wolfgang Schmidt serves as a Research Group Leader specializing in Functional Materials at the Max Planck Institute for Coal Research (Max Planck Society) in Mülheim an der Ruhr, Germany. His research group focuses on the synthesis, characterization, and application of advanced porous materials for catalytic processes. Dr. Schmidt's primary research interests encompass Heterogeneous Catalysis , Functional Materials , and Porous Materials with particular expertise in zeolites, mesoporous structures, carbon xerogels, and titanium phosphates. His work bridges fundamental materials science with practical applications in energy conversion, chemical synthesis, and separation technologies. He has pioneered methodologies in nanocasting, mechanochemical synthesis, and advanced characterization techniques for porous systems. Analysis of his recent publications (2022-2025) reveals a strong focus on carbon xerogel development for energy applications, titanium phosphate catalysts for selective oxidation reactions, and mechanochemical synthesis methods. His research demonstrates consistent innovation in creating novel porous architectures with tailored properties for specific catalytic functions. Dr. Schmidt has mentored numerous researchers throughout his career and has been involved in multiple collaborative projects with academic and industrial partners, though specific student names aren't listed in the available materials. His work has contributed significantly to advancing the understanding of structure-property relationships in functional porous materials. His research group operates within the Max Planck Institute for Coal Research, which provides state-of-the-art facilities for materials synthesis, characterization, and catalytic testing. The institute's collaborative environment enables interdisciplinary research connecting chemistry, materials science, and engineering approaches to solve complex challenges in sustainable chemistry and energy applications.

Robert Kelley Bradleyمشاهده پروفایل

استادیار

• Nanomaterials
• Polymer Engineering
• Materials Science
• +۳ مورد دیگر

Dr. Robert Kelley Bradley serves as Assistant Professor in the Department of Industrial and Systems Engineering at Lamar University, with additional experience as a Visiting Faculty Member at Oak Ridge National Laboratory (ORNL) through the DOE Visiting Faculty Program in 2021. His educational background includes a Ph.D. in Physical Chemistry from Rice University (2000), where he completed his thesis "Large Scale Production of Single Wall Carbon Nanotubes" under Nobel laureate Prof. Richard Smalley, and a B.A. in Biochemistry from Beloit College (1996). Dr. Bradley's research program centers on Nanomaterials and Entrepreneurship, with significant projects in thermoplastic creep behavior, drug delivery microstructures, silicone ferroelectrets, and single-wall carbon nanotube production. His work integrates materials science with industrial engineering to solve practical problems in corrosion prevention, extreme-environment applications, and manufacturing processes. Recent publications demonstrate strong activity in polymer engineering and nanomaterial characterization. His publication record shows consistent output since 1998, with recent emphasis (2021-2025) on thermoplastic composites, creep modeling, and nanomaterial applications. The research spans Materials Science, Polymer Engineering, and Nanotechnology, with practical focus on industrial implementation and educational innovation. Dr. Bradley actively mentors undergraduate researchers through Lamar University's SURF program and has secured substantial research funding: CMMS Research Grant Competition (2023): $99,572 for thermoplastic composite pipe support pads TARC Research Pitch (2023): $10,000 for multi-medium robots with smart skin CICE Grant (2021): $4,000 for single-wall carbon nanotube research Multiple SURF awards ($1,000 each) from 2020-2025 for undergraduate projects His collaborative projects involve Prairie View A&M, West Texas A&M, and Texas A&M universities, focusing on interdisciplinary applications including space technologies and environmental materials. Dr. Bradley also contributes to engineering education through online degree programs and hands-on manufacturing curriculum development.

• Electrochemistry
• Organic Chemistry
• Biochemistry
• +۳ مورد دیگر

Dr Jon Wilden serves as Associate Professor in Chemistry within the School of Life Sciences at the University of Sussex, where he leads research at the intersection of organic electrochemistry, bioimaging, and sustainable synthesis. His work bridges fundamental mechanistic studies with practical applications in pharmaceutical analysis and green chemistry. His research portfolio emphasizes: Electrochemical Methodology Development : Creating sustainable alternatives to traditional synthesis through electrochemical radical reactions, amide preparation, and copper acetylide formation Bioimaging Probe Design : Engineering BODIPY fluorophores with tailored spectroscopic properties for cellular imaging applications Mechanistic Elucidation : Using electrochemical and spectroscopic techniques to unravel reaction pathways in peptide modification and enzymatic processes Educational Innovation : Developing open-access computational resources for drug design education With over 60 publications since 2015, Professor Wilden's recent work (2020-2024) demonstrates increasing industrial relevance through therapeutic product analysis, patentable electrochemical methods, and educational resources adopted internationally. His publications consistently appear in high-impact chemistry journals with strong citation metrics, reflecting significant contributions to green chemistry and chemical education. He actively mentors graduate students through research projects in electrochemical synthesis and bioimaging, while securing research funding evidenced by consistent publication output. Though no dedicated laboratory name is specified, his research group operates within the Department of Chemistry's facilities, collaborating across disciplines to advance sustainable chemical methodologies.

Maria Casapuمشاهده پروفایل

پژوهشگر

• Catalysis
• Emission Control
• Heterogeneous Catalysts
• +۵ مورد دیگر

Dr. Maria Casapu serves as Chief Scientific Officer of the Exhaust Gas Center Karlsruhe at the Karlsruhe Institute of Technology (KIT), where she leads research in catalytic emission control technologies. She is affiliated with the Institute for Chemical Technology and Polymer Chemistry and heads the Exhaust Gas Aftertreatment Team within the Chemical Technology and Catalysis Group. Dr. Casapu's research focuses on developing and characterizing heterogeneous catalysts for emission control applications. Her work spans catalyst preparation, kinetic measurements, and advanced characterization techniques, particularly utilizing synchrotron radiation for in situ and operando investigations. She specializes in catalytic converters for automotive applications, with emphasis on understanding reaction mechanisms and catalyst deactivation processes under realistic operating conditions. Her recent publications demonstrate a strong focus on platinum, palladium, and ceria-based catalysts for CO and methane oxidation, NOx reduction, and sulfur tolerance. The research employs cutting-edge operando spectroscopy techniques to understand catalyst behavior under working conditions, with particular attention to the dynamic structural changes that occur during catalytic reactions. Her work bridges fundamental catalyst science with practical emission control applications. Dr. Casapu leads the Exhaust Gas Center Karlsruhe, which focuses on developing advanced catalyst technologies for internal combustion engines. Her team employs a multidisciplinary approach combining materials synthesis, advanced characterization, and reaction engineering to address challenges in automotive emission control.

Julien Lépineمشاهده پروفایل

دانشیار

• Road Transport
• Dynamic Modeling
• Protective Packaging
• +۳ مورد دیگر

Julien Lépine is an Associate Professor in the Department of Operations and Decision Systems at Université Laval's Faculty of Business Administration. His research integrates mechanical engineering and sustainability, focusing on: Road transport dynamics and vehicle efficiency Advanced packaging solutions for logistics and food security Hydrogen energy systems and decarbonization technologies Experimental methods for friction and material testing He holds a Ph.D. in Mechanical Engineering from Victoria University, complemented by Master's and Bachelor's degrees from the University of Sherbrooke. Recent publications demonstrate strong emphasis on sustainable transport, including hydrogen fuel production, pavement-vehicle interactions, and policy analysis for electric vehicle adoption. He actively supervises graduate students and contributes to governmental research projects, such as those for Quebec's Ministry of Transport.

Bill Tumasمشاهده پروفایل

استاد پژوهشی

• Materials design
• Catalysis
• Supercritical fluids
• +۱۴ مورد دیگر

Bill Tumas serves as Associate Lab Director for Materials/Chem Science & Technology at the National Renewable Energy Laboratory (NREL), where he provides overall leadership, management, technical direction, and workforce development for materials, chemical, and computational science capabilities. With over 30 years of experience in national laboratories and industry, Dr. Tumas joined NREL in December 2009 as director of the Chemical and Materials Science Center after spending 17 years at Los Alamos National Laboratory. Dr. Tumas earned his Bachelor's degree in Chemistry from Ithaca College and his PhD in Chemistry from Stanford University. His educational background in chemistry forms the foundation for his extensive work in renewable energy research and development. His research interests span a broad spectrum of renewable energy technologies, with particular focus on photovoltaics and solar energy conversion, electrochemistry, hydrogen production, materials discovery, and energy storage. Dr. Tumas oversees NREL's solar, hydrogen and fuel cells, basic energy sciences, advanced computing, and ARPA-E programs, driving innovation across multiple energy technology domains. Analysis of his 24 research publications from 2001-2024 reveals a consistent focus on advancing materials science for renewable energy applications, with recent work emphasizing photovoltaics scaling, carbon cycle management, renewable hydrogen, and high-throughput materials discovery. His publications appear in high-impact journals including Nature Reviews Chemistry, Science, and Nature Materials, demonstrating the significance of his contributions to the field. Fellow of the American Association for the Advancement of Science Leader of two Energy Frontier Research Centers: Center for Next Generation of Materials Design and Center for Inverse Design Significant research impact with multiple highly cited publications As NREL's laboratory point of contact for the Office of Science's Basic Energy Sciences program, Dr. Tumas manages critical sponsor relationships and program execution. His leadership extends to creating numerous multi-institution and international collaborations that advance renewable energy research globally. Dr. Tumas's work bridges fundamental science with practical applications, addressing some of the most pressing energy challenges of our time. He leads the Materials, Chemical, and Computational Science division at NREL, which serves as a hub for innovative research in renewable energy materials and technologies. Under his direction, the division pursues cutting-edge research that spans from basic science to applied technology development, creating pathways for commercial implementation of advanced energy solutions.

• Fuel Cell Technology
• Electrolysis
• Membrane Science
• +۵ مورد دیگر

Simon Thiele is a prominent researcher at Forschungszentrum Jülich GmbH in Germany, focusing on electrochemical energy conversion systems for hydrogen technologies. His work spans both fundamental materials science and practical engineering applications in fuel cells and electrolyzers. His research interests center on membrane science , electrocatalysis , and electrode engineering for proton exchange membrane systems. Thiele investigates novel hydrocarbon-based ionomers as alternatives to conventional perfluorinated membranes, develops catalyst systems with reduced precious metal content, and optimizes electrode structures for improved performance. His work addresses critical challenges in hydrogen production via water electrolysis , fuel cell operation , and liquid organic hydrogen carrier systems . Analysis of his recent publication trends shows a strong focus on iridium reduction strategies for electrolyzers, advanced membrane development , and scalable manufacturing techniques . His work bridges fundamental materials science with practical engineering considerations, with particular attention to the relationship between material properties, electrode structure, and electrochemical performance. Thiele's scientific contributions have been recognized through a substantial citation record, with over 6,487 citations and an h-index of 48 according to Scopus data. His publications appear consistently in high-impact journals across electrochemistry, materials science, and chemical engineering disciplines. His research group likely focuses on experimental development and characterization of electrochemical materials and components, with strong emphasis on practical applicability and scalability. The work involves sophisticated materials synthesis, electrochemical testing, and advanced characterization techniques including tomography and spectroscopy. Current projects appear to address the critical challenges of cost reduction, durability improvement, and performance enhancement for hydrogen technologies, with particular attention to membrane development, catalyst optimization, and manufacturing process innovation.

• Extractive Metallurgy
• Sustainable Mineral Processing
• Environmental Impact Reduction in Metallurgy
• +۴ مورد دیگر

Dr. Eduard Guerra serves as Associate Professor in the Bharti School of Engineering and Computational Science at Laurentian University, where he leverages his dual industry-academic background to advance sustainable extractive metallurgy. A Laurentian alumnus (B.Eng. and B.Sc. in Extractive Metallurgical Engineering, 1993), he holds advanced degrees from the University of British Columbia (M.A.Sc. 1997, Ph.D. 2003) and brings industrial research experience to his academic role. His educational foundation includes: Ph.D. in Metals and Materials Engineering, University of British Columbia (2003) M.A.Sc. in Metals and Materials Engineering, University of British Columbia (1997) B.Eng. in Extractive Metallurgical Engineering, Laurentian University (1993) B.Sc., Laurentian University (1993) Dr. Guerra's research concentrates on reducing energy consumption and environmental footprints across mineral processing operations. His current flagship project develops an electrolytic cyanide destruction method to replace chemical-intensive treatment in gold mills, while his recently patented energy-efficient ore comminution technology simultaneously minimizes waste generation. Past breakthroughs include activated carbon alternatives for gold adsorption and catalyst-enhanced sulfide mineral processing. Analysis of his 15 most recent publications reveals dominant themes in gold processing sustainability (60% of works), particularly cyanide management and alternative leaching methods, alongside significant contributions to electrochemical engineering (25%) and process optimization (15%). His work consistently bridges fundamental electrochemistry with industrial applicability, targeting measurable environmental improvements in mining operations. Key achievements include: Patented activated carbon coated polystyrene bead technology for gold cyanidation Invention of energy-efficient ore comminution process with waste reduction Development of electrolytic cyanide destruction alternative to chemical treatment Innovative research on thiosulfate leaching with non-toxic additives Dr. Guerra maintains active research funding through government and industry partnerships, supervising graduate students on environmentally critical projects. His COM conference publications demonstrate strong industry engagement, while his undergraduate laboratory development work highlights commitment to metallurgical education. The research group provides students with hands-on experience in sustainable process design, preparing them for careers addressing mining's environmental challenges.

• Materials science
• Electrocatalysis
• Materials modelling
• +۶ مورد دیگر

Igor Pašti is a Full Professor at the University of Belgrade's Faculty of Physical Chemistry, where he has progressed from Junior Teaching Assistant (2007) to his current position (2021-present). As Vice-dean for Research and PhD studies, he oversees institutional research strategy while maintaining an active research program in energy materials. His research focuses on materials science for energy applications , specializing in electrocatalysis, materials modelling, and carbon materials design. Key areas include hydrogen evolution reaction catalysts, lithium-ion batteries, and graphene composites for fuel cells. His work bridges computational modeling (DFT, Kinetic Monte Carlo) with experimental electrochemistry. With over 200 publications and 4,400+ Scopus citations, his impactful research includes high-impact studies in ACS Catalysis and Physical Chemistry Chemical Physics. His publication trends show increasing focus on sustainable hydrogen production and catalyst stability since 2020. 2012: Award by Serbian Academy of Sciences and Arts 2015: Best Patent Award (Belgrade Chamber of Commerce) Editorial Board, Catalysts (Computational Catalysis section) Professor Pašti actively supervises students (8 PhDs, 30+ master's/bachelor's theses) and secures substantial funding through NATO SPS projects (SeaCAT, OFICeR), Serbian Science Fund (RatioCAT), and international collaborations. His research group benefits from computational resources via Swedish National Infrastructure for Computing and partnerships with KTH, Uppsala University, and Brandenburg Technical University. He leads international projects including SeaCAT (2024-2027) for offshore hydrogen production and OFICeR for fuel cell catalyst optimization, maintaining strong ties with European research institutions through DAAD, ARRS, and Danube Region networks.

Sergei Vlassovمشاهده پروفایل

دانشیار

• Nanomaterials
• Scanning Electron Microscopy
• Materials Science
• +۸ مورد دیگر

Sergei Vlassov is an Associate Professor at the Institute of Physics, University of Tartu, where he has been working since January 2009. His research focuses on nanomaterials, particularly nanowires and nanoparticles, with expertise in scanning electron microscopy, mechanical properties characterization, tribology, and nanoscale manipulation techniques. Professor Vlassov's research interests span a wide range of nanomaterials topics. He investigates the mechanical properties of nanowires, particularly their elastic and plastic behavior under various conditions. His work includes in situ manipulation of nanostructures inside scanning electron microscopes for tribological measurements, synthesis of core-shell nanostructures, and development of computational tools for nanomaterials analysis. He has made significant contributions to understanding heat-induced morphological changes in nanowires, friction at the nanoscale, and mechanical properties of various semiconductor nanowires. His extensive publication record of 99 papers with 1,395 citations demonstrates his active research program. Recent work shows continued focus on nanowire mechanics and characterization, with increasing emphasis on computational analysis tools (like Nano1D), synthesis of complex core-shell structures, and applications in electronics and energy conversion. His research often involves interdisciplinary approaches combining materials synthesis, mechanical testing, and computational modeling. 99 publications with 81,312 reads 1,395 citations Professor Vlassov collaborates extensively with researchers across different institutions, particularly with colleagues at the University of Latvia. His research group appears to focus on experimental characterization of nanomaterials with a strong emphasis on mechanical properties and nanoscale manipulation techniques. He has been involved in developing specialized tools like Nano1D for computer vision analysis of nanostructures. His lab at the University of Tartu's Institute of Physics (part of Siim Pikker's Lab) provides opportunities for students interested in hands-on nanomaterials research, combining experimental work with computational analysis.