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Peter KusalikView profile

Professor

• Molecular Simulation
• Theoretical Chemistry
• Gas Hydrates
• +5 more

Peter Kusalik is a Professor in the Department of Chemistry at the University of Calgary's Faculty of Science. He previously held roles as Head of the Department of Chemistry and Associate Dean in the Faculty of Science. His research focuses on molecular simulations of liquids, solutions, and solids, particularly aqueous systems, crystal nucleation, and nanobubble behavior. He has authored 120+ publications and holds an h-index of 50. Education: PhD (Chemistry, UBC 1987), M.S. (Chemistry, UBC 1984), B.S. (Chemistry, U of Lethbridge 1981). Postdoctoral work at ANU followed by tenure at Dalhousie University before joining Calgary in 2005. Research Interests: Molecular simulations of liquid/solid interfaces, crystal nucleation in aqueous systems, self-assembly of metal-organic frameworks (MOFs), nanobubble stability, and energy applications. Techniques include advanced molecular dynamics and machine learning. Key Projects: Nanobubble generation via electric fields, gas hydrate nucleation mechanisms, and MOF synthesis innovations. Applications span water treatment, energy storage, and environmental remediation. Labs/Teams: Group Website and IQST collaborations highlight interdisciplinary work. His research bridges fundamental science and applied technologies, addressing global challenges in energy and environmental sustainability.

• Solid-state ionic technologies
• Energy conversion and storage
• Proton-conducting materials
• +6 more

Dr. Venkataraman Thangadurai is an Adjunct Professor in the Department of Chemistry at the University of Calgary, Canada. He holds academic positions including former roles as Professor (2015–present), Associate Professor (2012–2015), and Assistant Professor (2005–2012). He has also served as Visiting Associate Professor at the University of Maryland and Guest Professor at the University of Kiel, Germany. Education: B.Sc. (Chemistry and Education), M.Sc. (Chemistry), Ph.D. (Solid State Chemistry) from Indian Institute of Science, followed by a habilitation (Solid State Ionics) from Christian-Albrechts Universität zu Kiel. Research focuses on solid-state ionic materials for energy applications, including solid oxide fuel cells (SOFCs), proton-conducting electrolytes, lithium-ion batteries, and gas sensors. Key interests include the design of novel solid electrolytes (e.g., garnet-type Li conductors), material synthesis (high-temperature ceramic, chemical soft methods), and characterization using XRD, TGA, and electrochemical techniques. Publications highlight advancements in Li-ion conductors, proton-conducting oxides, and CO₂/SO₂ sensors. Over 200 peer-reviewed articles showcase contributions to energy storage and electrochemical systems. Editorships include Chemistry of Materials , Energy Technology , and Scientific Reports . Awards include Fellowships from the International Association of Advanced Materials (2019) and Royal Society of Chemistry (2015). Active in professional societies like the Electrochemical Society and Materials Research Society. Guided numerous PhD/MSc students and collaborates internationally on energy materials. His research group (Thangadurai Group) explores cutting-edge materials for sustainable energy solutions.

• Structural Engineering
• Seismic Performance of Concrete Structures
• Anti-Terrorist Design
• +3 more

Assoc Prof Li Bing is an Associate Professor at the School of Civil and Environmental Engineering, Nanyang Technological University (NTU). He specializes in structural engineering, with research focused on seismic performance of reinforced concrete structures, anti-terrorist design for infrastructure, and blast testing for explosive effects on concrete buildings. Dr. Li holds a B.Eng. in Structural Engineering from Tong Ji University and a Ph.D. from the University of Canterbury, New Zealand. He teaches courses on structural design and assessment, emphasizing reinforced concrete applications. His recent work explores innovative materials and methodologies for enhancing building safety and resilience against extreme events. His research interests span advanced materials characterization, failure mechanisms under dynamic loads, and sustainable construction practices. Notably, he has contributed to studies on glass-ceramic composites, MXene-based materials, and energy-efficient structural solutions. His articles reflect interdisciplinary approaches, combining material science, computational modeling, and engineering applications. Dr. Li’s academic contributions include advancements in electromagnetic wave absorption materials, transparent ceramics for laser applications, and neuromorphic device fabrication. His work bridges fundamental research with practical engineering solutions, addressing contemporary challenges in civil infrastructure resilience and safety.

Javier Perez AlvaroView profile

Associate Professor

• Numerical Linear Algebra
• Matrix Analysis
• Numerical Analysis
• +8 more

Javier Perez Alvaro is an Associate Professor in the Department of Mathematical Sciences at the University of Montana, College of Humanities and Sciences. His research is centered on numerical linear algebra and matrix analysis, with applications in scientific computing and data science. He teaches courses such as Data Science Analytics, Numerical Analysis, and Linear Algebra. Research Interests: His primary focus lies in Numerical Linear Algebra , particularly Nonlinear Eigenvalue Problems , Matrix Polynomials , Linearizations , and Conditioning Analysis . He explores the theoretical and computational aspects of polynomial and rational eigenvalue problems, with applications in mechanical systems, fluid dynamics, and photonic crystals. The recent publications reflect a strong trend in structured linearizations, perturbation theory, and rational approximations for nonlinear eigenvalue problems. His work often involves developing and analyzing new families of linearizations (e.g., Fiedler-like, block-Kronecker) that preserve matrix structure and ensure numerical stability. The focus is on backward error analysis, eigenvector accuracy, and efficient solution methods for large-scale problems. Advising and Grants: He actively mentors undergraduate students in research projects related to Data Science and Machine Learning, including generative modeling, deep neural networks, and tiny machine learning. He is involved in the Master of Science in Data Science program. While specific grants are not listed, his collaborative work with researchers from institutions like KU Leuven, University of Manchester, and UC Santa Barbara indicates active research funding and partnerships. Labs and Teams: His research is conducted in collaboration with a broad network of mathematicians and computational scientists. Key collaborators include María C. Quintana, Maribel Bueno, Froilán M. Dopico, Paul Van Dooren, Karl Meerbergen, and Vanni Noferini. These collaborations span topics in structured linearizations, rational matrix functions, and numerical stability.

Leonid GurevichView profile

Associate Professor

• Materials Science and Engineering
• Electrochemical Energy Storage
• Lithium-Ion Batteries
• +12 more

Leonid Gurevich is an Associate Professor in the Department of Materials and Production at the Faculty of Engineering and Science, Aalborg University, Denmark. His research bridges materials science, electrochemistry, and nanotechnology, with a strong focus on energy storage systems and biosensing technologies. His research interests include lithium-ion and sodium-ion battery technologies, with emphasis on aging mechanisms, cathode recycling via pyrolysis, and development of non-woven electrode architectures. He also explores DNA-based nanoelectronic devices, conductive MXene hydrogels for tissue engineering, and polymeric nanocarriers for drug delivery. His work integrates experimental materials synthesis, electrochemical characterization, and device fabrication. Recent publications highlight advancements in sustainable battery recycling, durable biomaterials, and biosensor design. His research demonstrates a consistent trajectory toward sustainable energy solutions and biomedical applications of nanomaterials. Physics and Chemistry of Li-ion Battery Aging and Failure (2020–2024) NOWOS - Non-Woven Sodium-Ion Batteries (2025–2027), funded by The Villum Foundation BioStrip Nano (2020–2021) DNA-based electronic Biosensors (2009) EU FP6: DNA-Based Nanoelectronic Devices (2010–ongoing) He has contributed to scientific discourse through editorial roles, conference organization—including the 5th International Conference on Self-Assembly and Molecular Electronics (2023)—and numerous conference presentations. His work has received media attention, particularly regarding DNA-based electronics and miniaturization in nanotechnology. Leonid Gurevich leads a multidisciplinary research group and collaborates internationally. He has supervised PhD students and contributed to academic service as a journal editor and conference organizer. His research integrates fundamental science with practical applications in energy and healthcare.

• Aeronautics
• Materials Science and Engineering
• Mechanical Engineering
• +4 more

Andrea Cini serves as an Assistant Professor in the Department of Aerospace Engineering within the School of Engineering at Universidad Carlos III de Madrid (UC3M). His academic profile is centered on advanced aerospace materials and sustainable aircraft design, with strong industry collaborations including Airbus, Aernnova, and European Commission-funded initiatives. His research spans fatigue and fracture mechanics of aerospace alloys , hybrid-electric propulsion integration , and additive manufacturing for aircraft components . Key projects include ODE4HERA (Open Digital Environment for Hybrid-Electric Regional Architecture) funded by the European Commission (2024-2026), TIFON (AI for Design and Manufacturing), and CETACEO with Airbus Defence and Space. His experimental and computational work focuses on improving structural integrity through laser shock peening, composite crashworthiness, and vibration analysis of 3D-printed metals. Dr. Cini's publication trends reveal a strategic shift toward sustainable aviation (2022-2025), with 60% of recent work addressing hybrid-electric retrofitting and hydrogen propulsion systems. Earlier research (2009-2017) established his expertise in aluminum alloy fatigue mechanisms, particularly scratch-induced cracking in 2024-T351 sheets used in aircraft skins. His subfield specializations consistently emphasize real-world aerospace applications, from fuselage stanchion crashworthiness to joined-wing assembly solutions for next-gen aircraft. Major research funding includes: European Commission grants (ODE4HERA, INDIGO, ALARM) Spanish National Agency projects (TIFON, Hydrogen Powertrain Development) Industry contracts with Airbus, Aernnova, and Stargate Hydrogen Solutions International collaborations with Politecnico di Torino and CIRA His laboratory work integrates experimental fatigue testing with advanced FEM simulations, notably in the Rear End Virtual Testing Digital Twin project for Aernnova. Current efforts focus on digital twins for hydrogen-powered aircraft and AI-driven design optimization under the TIFON initiative.

Ines Lopez ArteagaView profile

Professor

• Acoustic Engineering
• Noise Control
• Vibro-Acoustic Design
• +3 more

Ines Lopez Arteaga is a Full Professor at Eindhoven University of Technology (TU/e) in the Mechanical Engineering Department, leading the Dynamics and Control group and serving as Chair of Acoustic and Noise Control. She specializes in optimal vibro-acoustic design of complex systems, addressing noise pollution’s societal and environmental impacts. Her research spans acoustic disturbance mitigation in machinery, combustion systems, and transportation. Academically, she holds a PhD from the University of Navarra and has held roles at institutions like DAF Trucks (Netherlands) and KTH Royal Institute of Technology (Sweden), where she was a Visiting Professor (2011–2014) and later appointed as Full Professor. She is a Subject Editor for the Journal of Sound and Vibration and collaborates internationally on projects like the TRANSIT initiative for railway noise reduction. Research Interests: Thermoacoustic instabilities, noise control in transportation, micro-perforated materials, and modular engineering education. Awards: Not explicitly listed but recognized through editorial roles and research contributions. Her recent work emphasizes thermoacoustic stability in combustion systems and innovative acoustic solutions, with publications spanning 2015–2025. She actively contributes to educational initiatives, including machine learning integration in multi-physics modeling and modular course design.

• Energy Storage
• Rechargeable Batteries
• Hydrogen Storage
• +3 more

Professor Zaiping Guo is a leading academic in energy storage materials at the University of Adelaide's School of Chemical Engineering. She holds an ARC Australian Laureate Fellowship and previously served as Distinguished Professor at the University of Wollongong. Her research focuses on electrode and electrolyte materials for batteries, hydrogen storage, and fuel cells. With over 400 publications (36,000+ citations, h-index 103), she has been recognized with awards like the NSW Premier’s Science Prize and Clarivate Highly Cited Researcher status. Education: PhD in Materials Engineering (University of Wollongong, 2003). Research interests: Design and application of advanced materials for energy storage/conversion systems, including lithium-sulfur batteries, CO₂ conversion batteries, and sustainable metal recovery from spent batteries. She emphasizes electrolyte engineering, high-entropy materials, and interfacial design. Notable articles (2024-2025) highlight breakthroughs in zinc-ion batteries, Li-CO₂ batteries, and medium-entropy cathode materials. Awards also include ARC Queen Elizabeth II Fellowship (2010) and ARC Future Fellowship (2015). Grants and collaborations focus on grid-scale energy storage, sustainable battery tech, and recycling. She leads interdisciplinary teams in the Advanced Materials & Energy Research Group, advancing practical applications of next-gen batteries.

• Materials Science
• Computational Materials Modeling
• Thermodynamic Properties
• +7 more

Pavel Korzhavy is a Professor of Materials Technology at KTH Royal Institute of Technology, specializing in computational modeling of disordered crystals and their thermodynamic properties using quantum mechanics principles. His research focuses on industrially relevant materials like metals and ceramics at elevated temperatures, particularly in the context of phase separation, corrosion mechanisms, and grain boundary dynamics. He leads the ExpSkills-REM project on rare earth magnet value chains under EIT RawMaterials and serves as KTH's representative in EIT RawMaterials and ERMA. He is also on the editorial board of the Journal of Nuclear Materials. His teaching roles include course responsibilities for Functional Materials (MH2300) and Materials Properties I (MH2056). Research interests span atomistic simulations of oxidation processes, solute effects in alloys, and first-principles modeling of thermal properties. His work integrates molecular dynamics, density functional theory, and Monte Carlo methods to study material behavior under extreme conditions. Recent projects emphasize predictive modeling for industrial applications in corrosion resistance, high-temperature stability, and magnetic material optimization. Publications highlight breakthroughs in understanding phase separation suppression in stainless steels via magnetic fields, hydrogen diffusion pathways in copper, and oxidation mechanisms of aluminum alloys. His collaborative efforts with European innovation networks aim to bridge academic research with industrial needs in raw materials and advanced manufacturing.

Hicham JohraView profile

Lecturer

• Energy Engineering
• Sustainable Building Materials
• District Heating Systems
• +4 more

Hicham Johra is a Lecturer in the Department of Construction, Urban and Environmental Engineering at Aalborg University, part of the Faculty of Engineering and Science. He is affiliated with the Research Group for Energy in Buildings. His research focuses on sustainable energy systems, building thermodynamics, and energy flexibility in district heating networks. He holds a PhD in Civil Engineering and has been actively involved in projects like the Sustainable Living Lab (AAU LeadENG) and ReMaBrick, which address circular economy solutions in construction. Research interests include energy efficiency in buildings, building materials characterization, fault detection in district heating systems, and occupant-centric building performance. He has contributed to over 155 publications, including studies on thermal conduction in materials, HVAC system control via video games (GEENIE), and experimental datasets on indoor environmental quality. Johra has received awards such as the Best Paper Award at RM4L2020 (2021) and the REHVA Young Scientist Award (2020). His work frequently involves collaborations with industry partners and international networks like the IEA EBC Annex projects on energy flexibility and evaporative cooling. He supervises PhD research and engages in educational initiatives, including developing game-based learning tools for building thermodynamics. His activities span organizing workshops, peer reviewing, and contributing to high-impact conferences like CISBAT and ACM BuildSys.

• Biohybrid Materials
• Nanotechnology
• Biomaterials
• +8 more

Mauri A. Kostiainen is a Full Professor at the School of Chemical Engineering, Aalto University, Finland, within the Department of Bioproducts and Biosystems. He holds a M.Sc. in Organic Chemistry from the University of Helsinki (2005) and a Ph.D. in Engineering Physics from Helsinki University of Technology (2008). After postdoctoral research at Radboud University (Netherlands) and Aalto University, he joined the faculty in 2013. His research focuses on creating biohybrid materials by integrating biological and synthetic components, particularly in the areas of DNA origami, protein cages, and cellulose-based nanomaterials. Educations: M.Sc. Organic Chemistry, University of Helsinki, 2005 Ph.D. Engineering Physics, Helsinki University of Technology, 2008 Research Interests: His work spans biohybrid materials, nanotechnology, and biomaterials. Key areas include the design of protein-based nanomaterials for light-emitting devices, antimicrobial systems using host-guest chemistry, and sustainable materials derived from cellulose and lignin. He explores DNA origami structures for drug delivery and viral vector packaging, as well as supramolecular interactions in biohybrid systems. His research emphasizes practical applications in nanomedicine, environmental technologies, and biomaterials engineering. Articles and Research Trends: Recent work highlights advancements in DNA origami-based systems, including controlled translation and viral vector packaging (2025), protein cage lighting devices (2025), and mechanoenzymatic cellulose processing (2025). His studies on antimicrobial materials (2024) and bio-templated silver coatings (2024) demonstrate applications in healthcare and environmental solutions. Articles also address structural stability of DNA nanostructures and novel methods in colloidal lignin particle synthesis. Awards and Honors: Young Investigator Award, Finnish Foundation for Technology Promotion (2015) WCC tunnustuspalkinto 2014, World Cultural Council (2014) Grants and Teams: As a faculty member, he has secured postdoctoral fellowships from the Academy of Finland. His research groups include the Biohybrid Materials team at Aalto, focusing on innovative materials synthesis and applications. Labs and Collaborations: Leads the Biohybrid Materials research group, collaborating on projects involving biomimetic engineering, nanomaterials, and sustainable chemistry. His work bridges fundamental research with industrial applications in biotechnology and nanotechnology.

Jamilur RahmanView profile

Researcher

• Physics
• Materials Engineering
• Thermoelectric Materials
• +3 more

Jamilur Rahman is a researcher affiliated with the Department of Physics at the University of Oslo, Norway, and part of the LENS Group within the Centre for Materials Science and Nanotechnology. His academic background spans physics and materials engineering, with a focus on thermoelectric materials and entropy-stabilized compounds. His research explores: Synthesis and characterization of thermoelectric materials Decoupling electronic and phononic properties through defect engineering Development of high-entropy alloys and catalysts Phase stability and transport properties in oxide and antimonide systems Recent publications highlight his work on high-entropy Heusler antimonides, multicomponent metal oxide catalysts, and intermetallic nanoparticles, reflecting a strong emphasis on sustainable energy applications. Scientific awards include: Academic excellence and merit scholarship at Changwon National University Best presentation award at the Korean ceramic society conference (2018) He has previously collaborated with institutions such as SINTEF Materials and Chemistry and Korea Institute of Ceramic Engineering & Technology.

• Positron Physics
• Materials Science
• Solid-State Physics
• +3 more

Prof. Dr. Christoph Hugenschmidt is an Associate Professor of Experimental Physics at the Technical University of Munich (TUM), affiliated with the Heinz Maier-Leibnitz Research Neutron Source (FRM II). His work focuses on positron physics, including the development of advanced positron beam techniques and novel measurement methods for analyzing surfaces, crystal defects, and fundamental leptonic systems. Education: Studied physics at the Universities of Freiburg and Bonn, completed his doctorate in 1997. Since joining TUM, he has led the Positron Physics Research Group and pioneered the NEPOMUC intense positron source. Research stays included the Institut Laue-Langevin (Grenoble) and institutions in Japan. Research Interests: Positron-based defect analysis, 3D defect imaging, spin-resolved electronic structure studies, and antimatter experiments. His group develops state-of-the-art tools like scanning positron microbeams and buffer-gas traps for precision measurements. Key Achievements: EU Erasmus+ Fellowship (2020), JSPS Research Award (2014), TUM Silver Badge (2013). Recent publications emphasize positron annihilation spectroscopy, plasma confinement, and defect characterization in materials like tungsten, lithium titanate, and diamond. Grants & Advising: Supervised numerous TUM scholarship holders. Active in international collaborations such as the APEX experiment for electron-positron pair plasmas. Involved in facility upgrades at FRM II and NEPOMUC. Labs/Teams: Leads the Positron Physics Research Group at TUM, collaborating with global institutions on projects like the NEPOMUC beamline and magnetic trapping systems.

Akshay VenkateshView profile

Professor

• Number Theory
• Algebraic Topology
• Representation Theory
• +3 more

Akshay Venkatesh holds the Robert & Luisa Fernholz Professorship in the School of Mathematics at the Institute for Advanced Study (IAS). He is renowned for his work at the intersection of number theory and topology, particularly in exploring algebraic structures related to the topology of locally symmetric spaces. Previously, he served as a Professor of Mathematics at Stanford University (2008–2018) and held positions at the Courant Institute and MIT. Venkatesh's research bridges diverse areas including representation theory, dynamics, and algebraic topology, with a focus on the Langlands program and motivic cohomology. Educations: PhD in Mathematics, Princeton University (2002) B.Sc. in Mathematics, University of Western Australia (1997) Research Interests: Venkatesh investigates the profound connections between number theory and geometry, such as the analogy between prime numbers and knots. He explores the topology of locally symmetric spaces, which encode arithmetic information through their cohomology and geometric structures. His work often reveals unexpected links between algebraic varieties, modular forms, and geometric invariants. Key Contributions: His studies on the topology of locally symmetric spaces have advanced understanding of the Langlands program and motivic cohomology. He has pioneered methods to decode arithmetic properties (e.g., solutions to polynomial equations modulo integers) through topological invariants of geometric spaces. Awards and Honors: Fields Medal (2018) Ostrowski Prize (2017) Infosys Prize (2016) SASTRA Ramanujan Prize (2008) Salem Prize (2007) Honorary Doctorate, University of Western Australia (2019) Labs/Teams: Venkatesh led a special program on analysis and topology of locally symmetric spaces at IAS (2017–2018), fostering interdisciplinary collaborations in number theory and topology. His research often intersects with algebraic geometry and representation theory.

Ivana Nikšić-FranjićView profile

Researcher

• Organic Chemistry
• Supramolecular Chemistry
• Computational Chemistry
• +3 more

Ivana Nikšić-Franjić is a Researcher at the Division of Organic Chemistry and Biochemistry within the Ruđer Bošković Institute (RBI), Zagreb. Her work focuses on synthetic methodologies in organic chemistry, particularly in supramolecular systems, computational chemistry, and materials science. She collaborates extensively with international teams, including French institutions, on projects involving calixarenes, nucleotide sensing, and membrane dynamics. Her research interests include the design of functional supramolecular systems, mechanistic studies of radical reactions in aqueous environments, and the application of computational methods to predict reaction pathways. Key projects involve boron cluster interactions with lipid membranes, Zirconium-mediated organic synthesis, and the development of fluorescent sensors for nucleic acids. Ivana’s recent work highlights advancements in tailored cyclopentadiene synthesis (2025), membrane expansion via boron clusters (2024), and calixarene-based sensors (2023). Her studies often bridge organic synthesis with biophysical applications, such as toxin detoxification modeling (2022) and charge-transfer dynamics in organic dyes (2023). She has contributed to over 14 peer-reviewed articles since 2017, with impactful work in Angewandte Chemie , Organic Chemistry Frontiers , and Crystal Growth & Design . Her lab focuses on interdisciplinary approaches, integrating experimental and computational methods to solve challenges in molecular recognition and material design.