جست‌وجوی استاد و پژوهشگر

• Nanomaterials Synthesis
• Energy Applications
• Biomedical Engineering
• +۳ مورد دیگر

Fang Xie is a Professor of Functional Materials at Imperial College London's Department of Materials, Faculty of Engineering. Her research focuses on nanomaterials synthesis and fabrication using advanced techniques like colloidal lithography and nanoimprint lithography, with applications spanning energy conversion, biomedical engineering, and nanotechnology. Dr. Xie's research integrates metal and semiconducting nanoparticles for innovations in photothermal therapy, biosensing, photocatalysis, and sustainable energy solutions. Her work consistently explores plasmonic enhancements and nanomaterial functionalization for improved performance in medical diagnostics and renewable energy applications. Her recent publications demonstrate strong trends in multifunctional nanomaterials for biomedical theranostics (especially NIR-II imaging and photothermal therapy) and sustainable technologies (CO2 reduction, hydrogen evolution). The research consistently leverages plasmonic effects and hybrid nanostructures to achieve breakthrough enhancements in efficiency. Grants: Postgraduate scholarships (Imperial College London) International students funding opportunities Dr. Xie leads research in nanomaterials fabrication and mentors graduate students, with her lab developing cutting-edge solutions at the intersection of materials science, photonics, and biomedicine.

Nora Henriette de Leeuwمشاهده پروفایل

استاد

• Computational Materials Chemistry
• Computer-Aided Catalyst Design
• Geochemical Processes
• +۴ مورد دیگر

Nora Henriette de Leeuw is a Professor of Computational Chemistry and Executive Dean of the Faculty of Engineering and Physical Sciences at the University of Leeds, UK. Previously, she held roles such as Pro-Vice Chancellor (International & Doctoral Research) at Cardiff University and Professor of Theoretical Geochemistry & Mineralogy at Utrecht University. Her research focuses on computational materials chemistry, including catalyst design for sustainable energy, geochemical processes, and biomaterials. She has pioneered studies on photo-catalytic materials, collagen structure modeling, and the origin of Earth's water. Her honors include membership in Academia Europaea (2017), Fellowship of the Learned Society of Wales (2016), and the Royal Society Industry Fellowship (2012). Key contributions include explaining enhanced photoresponse in FeS₂ films, demonstrating bioinspired CO₂ conversion via iron sulfide catalysts, and modeling collagen fibril structures. Her work integrates computational methods to address challenges in energy sustainability, biomaterials, and Earth science. She has led interdisciplinary teams and contributed to software for solid solution modeling, now widely used in catalysis and mineralogy.

James Salvadorمشاهده پروفایل

استاد

• Organic Chemistry
• Asymmetric Synthesis
• Chiral Chromatography
• +۳ مورد دیگر

James Salvador is a Professor in the Department of Chemistry at The University of Texas at El Paso. His teaching focuses on organic chemistry, where students describe him as a demanding yet supportive instructor offering extensive extra credit opportunities and curving exams to aid success. His research spans organic synthesis , chiral chromatography , and environmental chemistry , with publications covering asymmetric catalysis, copper adsorption in plants, and enantiomeric separation techniques. His work emphasizes practical methodologies for pharmaceutical and environmental applications. Analysis of his publications reveals trends in asymmetric synthesis , chiral resolution , and metal interaction studies , often integrating biochemical and analytical chemistry approaches. He has contributed extensively to teaching laboratory innovations in organic chemistry.

Moreno Lelliمشاهده پروفایل

دانشیار

• NMR Spectroscopy
• Dynamic Nuclear Polarization (DNP)
• Structural Biology
• +۶ مورد دیگر

Moreno Lelli is an Associate Professor in the Department of Chemistry at the University of Florence, affiliated with the Magnetic Resonance Center (CERM). His research focuses on advanced spectroscopic techniques, particularly Dynamic Nuclear Polarization (DNP) and NMR spectroscopy, applied to structural biology, materials science, and biomolecular systems. Lelli’s work spans topics like protein aggregation mechanisms, antimicrobial agents, liquid crystals, and drug design. His research interests include: Dynamic Nuclear Polarization (DNP) for enhanced NMR sensitivity Structural studies of membrane proteins and peptides Mechanisms of antibiotic action and novel drug discovery Characterization of catalytic materials and surface chemistry Key contributions include elucidating the mode of action of teixobactin, a promising antibiotic, and developing DNP methods for studying complex biological systems. His work integrates experimental and computational approaches to address challenges in drug design, material characterization, and disease mechanisms.

Vincenzo Spallinaمشاهده پروفایل

دانشیار

• Chemical Engineering
• Process Intensification
• Hydrogen Production
• +۵ مورد دیگر

Vincenzo Spallina is a Reader in Chemical Engineering at the University of Manchester, leading the Sustainable Process Intensification Group and the Industrial Hub for Sustainable Engineering in the James Chadwick Building. He specializes in developing intensified reactors for energy, chemical, and biochemical processes with a focus on chemical looping technologies, waste valorization, and membrane-aided reactors. Education: Doctor of Engineering, Politecnico di Milano (2013) Master of Engineering, Politecnico di Milano (2008) Bachelor of Engineering, Politecnico di Milano (2005) Research interests include chemical looping for hydrogen production, carbon capture in steel industries, and glycerol valorization. His work combines numerical modeling and experimental testing to demonstrate sustainable technologies, contributing to UN goals for clean energy and climate action. Recent projects include the HYS2 RECYCLE (hydrogen production via chemical looping) and GLAMOUR (aviation fuel from glycerol), as well as C4U for steel industry carbon capture. He has secured £ millions in grants and coordinates international collaborations with industries like Johnson Matthey and ArcelorMittal. Recipient of the 2021 Techno-economic analysis award for carbon capture innovations. Academic lead for facilities like the Sustainable Process Intensification Group Lab and Pilot Low Carbon Hydrogen systems.

Constantinos Theodoropoulosمشاهده پروفایل

استاد

• Industrial Biotechnology
• Multi-scale Process Dynamics
• Biochemical Systems Engineering
• +۳ مورد دیگر

Professor Constantinos Theodoropoulos is a leading academic in Chemical and Biochemical Systems Engineering at the University of Manchester's Department of Chemical Engineering. His research integrates advanced computational modeling, optimization, and experimental approaches across multiple scales for bioprocess and energy system design. Education: BSc in Mathematics (Aristotle University of Thessaloniki), MSc and PhD in Chemical Engineering (SUNY Buffalo), Post-doctoral Associate (Princeton University) Academic Affiliation: University of Manchester (Permanent), National Technical University of Athens (Visiting Professor) His research focuses on multi-scale modeling of complex chemical and biological systems, particularly in industrial biotechnology and sustainable energy. Key areas include solid oxide fuel cells , microalgal biorefineries , and model reduction techniques for system optimization. His recent publications highlight innovations in: Electrochemical system design at pore-scale Multiscale fuel cell modeling Bioreactor optimization for biochemical production Parameter identifiability in biological systems Robust control methodologies Scientific recognition includes: 2011 IChemE Innovation and Excellence Award for Bioprocessing Fellow of the Royal Society of Chemistry (FRSC) Membership in professional bodies: Institute of Chemical Engineers (AMIChemE), American Institute of Chemical Engineers Teaching responsibilities encompass Process Control (undergraduate), Reaction Systems Design (MSc), and previously included courses on computer-aided design and process safety. He actively supervises research students and leads projects funded by EPSRC , BBSRC , InnovateUK , and EU initiatives.

Naoto Tanibataمشاهده پروفایل

استادیار

• Battery Materials
• Inorganic Materials Chemistry
• Solid State Ionics
• +۳ مورد دیگر

Dr. Naoto Tanibata is an Assistant Professor at Nagoya Institute of Technology, affiliated with the Department of Life and Applied Chemistry in the Graduate School of Engineering. He also holds a concurrent position at Kyoto University's Catalyst & Battery Elemental Strategy Unit. His research focuses on developing advanced materials for next-generation energy storage systems, particularly solid-state batteries. Dr. Tanibata received his academic training at Osaka Prefecture University: PhD in Engineering (2014-2017) Master of Engineering in Material & Chemical Engineering (2012-2014) Bachelor of Engineering in Applied Chemistry (2008-2012) Dr. Tanibata's research centers on advanced battery materials , with particular expertise in all-solid-state batteries using chloride and other novel electrolytes. His work combines computational materials science with experimental electrochemistry to develop high-energy-density storage solutions. Recent projects have focused on: Design principles for high-voltage chloride-based electrodes using HSAB theory Amorphization strategies for enhancing anion redox reactions Machine learning approaches for battery material discovery and optimization Deformability properties of solid electrolytes to prevent lithium dendrite formation His publication record demonstrates a strong focus on overcoming key challenges in solid-state battery technology, particularly addressing issues of ionic conductivity, interfacial stability, and high-voltage operation. Recent work has increasingly incorporated advanced simulation techniques and machine learning to accelerate materials discovery. Dr. Tanibata has received numerous awards for his contributions to battery research: Battery Technology Committee Award (2024) for 'Redox-level tuning for high-potential chloride electrodes' Best Oral Presentation Award (2024) from the Ceramic Society of Japan ECS Japan Branch Young Researcher Special Award (2024) Multiple Young Research Innovator Encouragement Awards Dr. Tanibata leads multiple research projects funded by prestigious organizations including the Japan Society for the Promotion of Science (JSPS), Fujikura Foundation, and Naito Science and Technology Promotion Foundation. His current research focuses on: Redox-level design for high-energy-density chloride electrodes (JSPS Grant 24K17755, 2024-2029) Establishing design guidelines for high-deformability materials for all-solid-state batteries Verification of amorphization-based anion redox utilization for microgrid applications At Nagoya Institute of Technology, Dr. Tanibata leads research within the Department of Life and Applied Chemistry, focusing on the rational design of solid-state battery materials based on solid-state chemistry principles. His work bridges fundamental materials science with practical battery applications for electric vehicles and grid-scale storage.

• Nanostructural physics
• Fundamental plasma
• Plasma engineering
• +۳ مورد دیگر

Yasushi Matsunaga is a Professor at Waseda University's Research Innovation Center, specializing in plasma physics and nanotechnology. With a PhD from Waseda University, he has held various research positions at Waseda since 1998, including roles at the Center for Research Strategy and Institute for Nanoscience and Nanotechnology. His career spans academic research, committee memberships with MEXT (Ministry of Education, Culture, Sports, Science and Technology), and leadership in research administration. Dr. Matsunaga's educational background includes: PhD in Pure and Applied Physics from Waseda University (1997) Master's degree in Pure and Applied Physics from Waseda University Bachelor's degree in Applied Physics from Waseda University His research focuses on nanostructural physics and fundamental plasma phenomena, with particular expertise in carbon nanotube properties, plasma display technology, and nonlinear dynamics in gas discharge plasmas. Matsunaga has made significant contributions to understanding Landau quantization in carbon nanotubes, selective production of metallic nanotubes, and ion acoustic wave phenomena. His interdisciplinary approach bridges theoretical physics with practical applications in nanotechnology and display engineering. Analysis of Matsunaga's publications reveals two major research thrusts: (1) theoretical and computational studies of plasma phenomena, particularly ion acoustic waves and nonlinear oscillations in discharge plasmas; and (2) applied research on carbon nanotubes, including their electrical properties and selective production methods. His work demonstrates strong integration of theoretical modeling with practical applications, particularly in display technology and nanomaterials engineering. Dr. Matsunaga has received notable recognition: Japan Society for the Promotion of Science Grant-in-Aid for Scientific Research First-Stage Review 'Model Reviewer who provided exemplary review comments' Award (October 2010) As a research administrator, Matsunaga has served on numerous MEXT committees related to university-industry collaboration, research evaluation, and research administration since 2008. His leadership extends to developing research administrator (URA) training programs and contributing to research strategy at Waseda University. He has secured research funding through JSPS Grants-in-Aid for Scientific Research projects on carbon nanotube current limits and RF sheath theory in process plasmas. Matsunaga is affiliated with Waseda University's Faculty of Science and Engineering and Graduate School of Advanced Science and Engineering. His work connects with the university's Research Strategy Center and has involved collaborations through symposia on 'Physics of Self-Organization Systems.' His contributions span theoretical research, practical applications in display technology, and leadership in research administration.

• 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.

Sonja Grotheمشاهده پروفایل

استاد

• Nanotechnology
• Materials Science
• Nanoparticle Research
• +۴ مورد دیگر

Prof. Dr. Sonja Grothe is a Professor of Physics and Applied Mathematics in the Department of Mechanical Engineering, Environmental and Building Technology at Westfälische Hochschule in Gelsenkirchen, Germany, a position she has held since September 2016. Her academic journey includes significant industrial experience in chemical manufacturing prior to her current faculty role. Professor of Physics and Applied Mathematics, Westfälische Hochschule (2016-present) Plant Manager for Titanium Dioxide White Production, Huntsman P&A Germany GmbH (2015-2016) Project Manager in Process Development, Huntsman (Sachtleben Chemie GmbH) (2014-2015) Laboratory Manager, Sachtleben Chemie GmbH in Product and Application Development (2008-2014) Prof. Grothe's research focuses on nanotechnology and materials science with particular emphasis on nanoparticle synthesis, composite materials, and surface modification. Her doctoral work on FePt nanoparticles from the gas phase established her expertise in nanomaterials, which she has since translated into numerous industrial applications. Her research bridges fundamental physics with practical industrial solutions, particularly in the fields of titanium dioxide and barium sulfate composites. Her publication record shows a clear evolution from fundamental nanoparticle research toward applied industrial materials science. Recent work demonstrates expertise in nanoparticle reinforcement of polymers, functionalization of inorganic particles, and development of specialized composites with enhanced mechanical, optical, and processing properties. The interdisciplinary nature of her work spans physics, chemistry, and engineering disciplines. Graduate Prize of the Year 2000 for exceptional academic achievement PhD in Physics completed with distinction ("mit Auszeichnung") Prof. Grothe teaches core physics courses including Physics 1, Physics 2, Electrical Engineering and Electrical Machines, and Computer-Aided Engineering Mathematics 2. Her extensive industrial experience in chemical manufacturing and materials development provides practical context to her academic instruction, creating a valuable bridge between theoretical principles and real-world engineering applications.