Eva Blasco is an Associated Group Leader at the Functional Polymeric Materials Research Unit under the Institute of Nanotechnology at Karlsruhe Institute of Technology (KIT), with affiliations to the University of Heidelberg. Her work bridges 3D printing , polymer chemistry , and nanophotonics , focusing on light-driven material design. Her research centers on photochemically activated 3D printing inks , light-stabilized dynamic materials , and multi-photon lithography . She explores how two-color light absorption , alkoxyamine chemistry , and visible light post-processing enable adaptable microstructures. Key trends include 4D printing , biodegradable inks , and temperature/light-responsive systems . Blasco's publications highlight collaborations with institutions like KIT, University of Heidelberg, and international teams. Her work spans photonic metamaterials , bio-inspired 3D scaffolds , and subtractive laser lithography , often involving interdisciplinary applications of light in material science.
R. Wirth is a senior researcher in the Department of Geochemistry at the Deutsches GeoForschungsZentrum (GFZ), Potsdam, Germany, specifically within the 3.5 Interface Geochemistry group. Previously, he was affiliated with the 3.6 Chemistry and Physics of Earth Materials group at the same institution. He is actively engaged in cutting-edge research involving nanoscale analysis of geological materials using transmission electron microscopy (TEM) and other advanced microanalytical techniques. The research interests of R. Wirth span a broad range of topics in geochemistry and mineralogy, including interface geochemistry, shock metamorphism, hydrothermal alteration, nanomineralogy, high-pressure mineral physics, and the formation and transformation of Earth materials. His work frequently addresses fundamental questions in petrology, economic geology, and planetary science, often focusing on the micro- to nano-scale processes that govern mineral behavior under extreme conditions. An analysis of Wirth's recent publications reveals a strong trend toward interdisciplinary geochemical research, combining advanced analytical methods with field and experimental studies. His work often involves collaboration with international teams and contributes to understanding geological processes such as impact cratering, mantle metasomatism, ore formation, and fossilization. The keywords and subfields from his articles highlight a consistent focus on microstructures, phase transitions, fluid-rock interactions, and the application of high-resolution microscopy in Earth sciences. R. Wirth has made significant contributions to the scientific community through his extensive publication record in high-impact journals such as Geology , American Mineralogist , and Contributions to Mineralogy and Petrology . His research has advanced the understanding of mineral behavior at the nanoscale, with implications for resource exploration, planetary science, and fundamental geochemical processes. Although no specific grants or advising roles are mentioned in the provided text, his collaborative publication pattern suggests an active role in research teams and scientific networks. His laboratory work is centered on advanced electron microscopy techniques at GFZ, where he likely leads or is a key member of a research team specializing in nanogeoscience. The consistent use of TEM, EELS, and microdiffraction in his studies indicates a well-equipped and specialized laboratory environment focused on high-resolution characterization of geological materials.
Dr. Adèle Carradò is a Full Professor in Solid State Physics at the University of Strasbourg (UNISTRA), affiliated with the Institute of Physics and Chemistry of Materials (IPCMS). Her research focuses on bioactive coatings, surface characterization of metallic and multi-layer systems, and mechanical properties of hybrid materials. PhD in Mechanics and Material Science (University of Reims, 2001) HDR (University of Strasbourg, 2004) Research Assistant (University of Ancona, 1997-1998) Post-doc (CEA Saclay, 2002) Her work includes over 70 original articles, two patents, and 50+ invited lectures. She specializes in: Residual stress analysis via neutron and synchrotron radiation Functional thin films for biomedical applications Mechanical behavior of metal/polymer/metal systems 3-layered sandwich structures for lightweight design Zn-Mg alloys for orthopedic implants Surface grafting techniques for biomaterials Recent publications highlight advancements in: Biodegradable Zn-Mg alloys with PMMA coatings ATUM-SEM for bone microstructure analysis Forming mechanics of steel-glass fiber-reinforced composites Residual stress optimization in extruded and drawn materials She actively participates in international conferences and serves on executive committees for biomedical materials symposia.
Silviu COLIS is a Professor in Inorganic Materials Chemistry at the Ecole Européenne de Chimie, Polymères et Matériaux (University of Strasbourg), conducting research at the Institut de Physique et Chimie des Matériaux de Strasbourg (IPCMS). His work focuses on multifunctional oxide thin films and multilayers for spintronic and photovoltaic applications, including magnetic tunnel junctions and ferroelectric solar cells. PhD in Physics, Louis Pasteur University (2001) Postdoctoral Researcher, Siemens AG (2001-2002) Research Habilitation, Louis Pasteur University (2008) His research spans magnetic oxides for spin electronics, oxide thin films for photovoltaics, and quantum materials. Recent work emphasizes ferroelectric thin films, oxygen vacancy effects, and transparent conductive oxides in solar cells. Key publications highlight advancements in Bi2FeCrO6 thin films, Yb-doped SnO2 nanoparticles, and gate-tunable phototransistors. Collaborations span institutions like IPCMS, ITI QMat, and Labex NIE. Marie Curie Fellowship Administrative roles include Head of the 'Functional Materials and Nanoscience' major, Research Coordinator for ITI QMat, and leadership in the ChemLab ECPM platform.
Liu Jing is an Associate Professor at the School of New Materials and New Energy, Shenzhen University of Technology, recognized as a Shenzhen Overseas High-Level 'Peacock Plan' Talent (Category C). His research focuses on thermal management solutions for next-generation electronics and energy storage systems. His academic credentials include: PhD in Engineering Thermophysics from Iowa State University (2013-2017), supervised by Professor Xinwei Wang Bachelor's degree in Thermal Energy and Power Engineering from Southeast University (2008-2012) Dr. Liu's research program centers on Raman spectroscopy-based chip thermal management , thermal management material design for high-power semiconductor devices , and lithium-ion battery thermal management technology . His work bridges fundamental heat transfer phenomena with practical applications in third-generation semiconductor HEMTs and energy storage systems, emphasizing nanoscale thermal characterization and material engineering. Analysis of his 15 most recent publications reveals dominant themes in graphene thermal transport, Raman-based thermometry, and sustainable carbon materials. Key journals include Nanomaterials, ACS Applied Materials & Interfaces, and Carbon, with consistent focus on defect engineering, temperature-dependent properties, and advanced characterization techniques for nanomaterials. Major recognitions include: Shenzhen Overseas High-Level 'Peacock Plan' Talent (Category C), 2019 Iowa State University Research Excellence Award (top 10%), 2016 As Principal Investigator, Dr. Liu leads multiple funded projects including a Guangdong Provincial Basic Research Fund project (100,000 RMB) and a Shenzhen University High-Level Talent project (2.7 million RMB). His portfolio spans semiconductor thermal management, battery safety, and sustainable materials, with total secured funding exceeding 3 million RMB through national, provincial, and municipal grants.
Michael Raupach is a Professor at RWTH Aachen University holding the Chair of Building Materials Science - Building Conservation. His work focuses on concrete durability, reinforcement corrosion, and sustainable construction materials, with particular expertise in alkali-activated binders, carbon textile reinforcement, and electrochemical monitoring systems. Research Interests: Concrete durability, corrosion protection, sustainable materials, structural maintenance, BIM applications, and non-destructive testing. Recent Work: Investigates electrically heated carbon textile reinforced concrete systems, develops hybrid alkali-activated materials for realkalization, and explores chloride diffusion mechanisms in low-carbon binders. Publications: Active in journals covering concrete technology, corrosion engineering, and sustainable construction methods.
Zhiyong Wang is a Researcher and Group Leader at the Max Planck Institute of Microstructure Physics (Halle, Germany), leading the group focused on 2D polymer and interfacial synthesis within the Department of Synthetic Materials and Functional Devices. He holds a doctoral degree from Technische Universität Dresden (2021), where he worked under Prof. Xinliang Feng before transitioning to his current role in 2022. His research emphasizes interface-assisted synthesis methodologies and explores synthetic/interfacial chemistry for precision design of organic 2D materials. Key applications include multifunctional electronic/optoelectronic devices, van der Waals heterostructures, and membranes for osmotic power generators and battery applications. Recent studies highlight advancements in 2D polymer membranes with tailored ion transport properties, addressing energy technology challenges. Notable contributions include pioneering work on water-surface synthesis of 2DP membranes (Nat. Synth., 2022) and advancements in osmotic energy conversion systems. His publications span high-impact journals like Advanced Materials and Nature Communications, reflecting expertise in energy materials and nanotechnology. Wang’s research bridges fundamental material science with applied energy solutions, positioning him at the forefront of 2D material innovation. Current efforts focus on enhancing membrane selectivity/conductivity trade-offs and expanding applications in sustainable energy devices.
Virginia Toy is a Professor in the Department of Geosciences at Johannes Gutenberg University Mainz, leading the Tectonics and Structural Geology research team. Her work focuses on understanding fault zone dynamics, crustal deformation, and the mechanics of active tectonic systems. She is deeply involved in interdisciplinary projects such as the Deep Fault Drilling Project (DFDP) and the DIVE initiative, which explore fault zone architecture and seismic processes in regions like the Alpine Fault (New Zealand) and the Ivrea-Verbano Zone (Italy). Her research interests span structural geology, geophysics, and earthquake mechanics. Key areas include fault zone rheology, pseudotachylyte formation, fluid-rock interactions, and the application of advanced imaging techniques (e.g., X-ray tomography) to study rock properties at multiple scales. She has contributed to understanding the geothermal conditions and fluid dynamics within active plate boundaries, such as the Alpine Fault, which is a critical site for studying earthquake processes. Virginia Toy’s recent publications highlight her focus on resolving the structural and mechanical complexities of crustal faults, including studies of ultramafic rocks, carbonation processes, and the integration of laboratory experiments with field observations. Her work bridges traditional field geology with cutting-edge analytical methods, offering insights into how deformation localizes and propagates within the Earth’s crust. Her educational contributions include advancing virtual field trip methodologies and digital tools for structural geology education, emphasizing the use of gamification and GIS databases to enhance data accessibility and collaboration.
Dr. Melanie Bühler is the Head of Electrochemical Energy Systems - Applications at the Department of Microsystems Engineering (IMTEK) at the University of Freiburg. She holds a PhD from the University of Freiburg (2020), focusing on 'Development of novel electrodes for PEM water electrolysis.' Her academic journey includes a Master's in Microsystems Engineering (2016) with work on bio fuel cells and a Bachelor's (2012) in the same field. She is currently the contact person for PEM water electrolysis projects. Her research interests revolve around electrochemical systems, specifically proton exchange membrane (PEM) electrolyzers, catalyst development, material science, and renewable energy systems. Key areas include optimizing electrode configurations, catalyst activity, and membrane assembly technologies. She has contributed to advancements in non-noble metal catalysts and core-shell microparticle designs for improved electrolyzer performance. Dr. Bühler's lab, the Laboratory for MEMS Applications, focuses on applied electrochemical engineering. Her publications highlight innovations in PEM electrolyzer design, electrode fabrication techniques, and material characterization. Her work bridges fundamental electrochemistry with practical applications in sustainable energy systems.
Dr.-Ing. Alexander Gramlich is a scientific staff member at the Chair of Metal Materials Science and Institute of Ferrous Metallurgy, RWTH Aachen University, Germany. His work focuses on advanced steel development, particularly medium-manganese steels, sustainable manufacturing, and digitalization of metallurgical processes. His research spans multiple critical areas of modern steel metallurgy including: Development of third-generation advanced high-strength steels Phase transformation kinetics in medium-manganese steels Sustainable steel production through recycling and eco-efficient processes Digital material twins and physics-informed machine learning Fatigue and fracture mechanics of automotive and wind energy components Dr. Gramlich's recent publications demonstrate a strong focus on bridging fundamental materials science with industrial applications. His work on medium-manganese steels addresses critical challenges in automotive lightweight design, while his research on wind turbine components contributes to renewable energy infrastructure. The integration of digital technologies, including AI-driven material design and digital twins, represents a cutting-edge approach to modern metallurgy. Based at RWTH Aachen University, one of Europe's leading technical universities, Dr. Gramlich contributes to both fundamental research and technology transfer to industry. His address at Intzestr. 1, 52072 Aachen, places him at the heart of Germany's industrial region, facilitating collaboration with major steel producers and automotive manufacturers.
Prof. Felix Fritzen is a Heisenberg Professor (W3) for Data Analytics in Engineering at the University of Stuttgart's Institute of Applied Mechanics (MIB). His work is embedded in the Cluster of Excellence Data-Integrated Simulation Science (SimTech). He leads the EMMA Emmy Noether group (2015–2020) and previously headed the KIT Young Investigator Group CAMM. His research focuses on data-driven surrogate models, uncertainty quantification, and computational mechanics of materials, with emphasis on nonlinear model reduction and multiscale simulations. Education: Ph.D. (Dr.-Ing., summa cum laude) from KIT (2011), Dipl.-Math. techn. (2007), Dipl.-Ing. (2006). Research interests include machine learning integration with mechanics, microstructure-property relations, and high-performance simulation techniques. Notable contributions involve FFT-based homogenization, reduced order modeling, and GPU-accelerated methods. He has authored over 60 peer-reviewed papers, including works on surrogate models for microstructure forecasting and thermoelastic material analysis. Awards include the KIT PhD Award (2012) and recognition as a GAMM Junior (2012–2014). His teaching includes courses on data processing for engineers and model order reduction. Funded projects include DFG grants (EXC-2075, HE 7919/1) and the Heisenberg Professorship (FR2702/8).
Albert Zelenika is a postdoctoral researcher at the Karlsruhe Institute of Technology (KIT), affiliated with the Mechanics of Materials 1 (WM1) group within the Institute of Applied Materials. His research focuses on dislocation dynamics, materials physics, and advanced X-ray microscopy techniques. Education: BSc in Physics, University of Trieste (2014-2018) MSc in Physics, University of Trieste (2018-2021) PhD in Physics, Technical University of Denmark (2021-2024) Zelenika specializes in the application of Dark Field X-ray Microscopy (DFXM) and X-ray diffraction microscopy to study structural evolution during plastic deformation in metals and ceramics. His work reveals critical insights into dislocation patterning, cell formation, and strain dynamics in crystalline materials. Recent research trends highlight Zelenika's contributions to understanding dislocation boundaries , geometrically necessary boundaries (GNBs) , and self-organization of dislocations using in-situ and 4D X-ray imaging. His studies span applications in aluminum , ferritic alloys , and borophene characterization. Laboratory & Collaborations : Zelenika works in Xufei Fang's Lab at KIT and collaborates with researchers at the Technical University of Denmark and European Synchrotron Radiation Facility . His work involves interdisciplinary teams utilizing synchrotron radiation and advanced diffraction techniques.
Prof. Dr. Matti Schneider serves as Professor of Engineering Mathematics and Head of the Institute of Engineering Mathematics within the Faculty of Civil Engineering at the University of Duisburg-Essen. His academic leadership spans computational mechanics research and teaching core mathematics courses for civil engineering students. His educational background includes: Diploma in Applied Mathematics with distinction from TU Bergakademie Freiberg (2009) PhD (Dr. rer. nat.) from Leipzig University (2013) on "The Leray-Serre spectral sequence in Morse homology on Hilbert manifolds and in Floer homology on cotangent bundles" Professor Schneider's research focuses on advancing computational methods for solid mechanics through FFT-based homogenization techniques, microstructure modeling, and multi-scale material analysis. His work bridges applied mathematics and engineering to solve complex problems in heterogeneous material systems, with particular emphasis on numerical stability, boundary condition implementation, and efficient solver development for industrial applications. His methodologies enable accurate prediction of material behavior across scales from microscopic structures to macroscopic components. Analysis of his 15 most recent publications reveals dominant trends in FFT-based computational homogenization, with significant contributions to thermal problems, porous media, and fiber-reinforced composites. He pioneers the integration of machine learning (particularly deep material networks) with traditional numerical methods to model complex material behaviors like shear-thinning suspensions and 3D-printed materials. His work consistently addresses computational challenges in boundary condition implementation and convergence for stochastic microstructures. Professor Schneider leads the Institute of Engineering Mathematics and directs research within the ERC-funded BeyondRVE project, which focuses on extending representative volume element concepts for advanced material modeling. His collaborative network includes major German research institutions like Fraunhofer ITWM and international partners in materials science.
Professor Wolfgang Zeier leads a prominent research group in the Department of Chemistry at the University of Muenster, Germany, specializing in solid-state battery materials and solid electrolytes. His research spans materials synthesis, characterization, and electrochemical analysis with a focus on sulfide and halide-based solid electrolytes for lithium and sodium batteries. The Zeier group employs a comprehensive suite of analytical techniques including X-ray diffraction, electron microscopy, thermal analysis, and electrochemical methods to investigate structure-property relationships in battery materials. Zeier's research interests center on solid electrolytes, particularly argyrodite-type materials, NASICON structures, and halide conductors. His group investigates ionic transport mechanisms, interfacial phenomena in solid-state batteries, and structure-property relationships in ion-conducting materials. Recent work has focused on understanding how microstructure, crystal chemistry, and defects influence ionic conductivity and battery performance. The group has made significant contributions to understanding thermal transport in solid electrolytes and developing strategies to enhance ionic conductivity through chemical substitution. The Zeier group maintains extensive instrumentation for materials characterization, including multiple X-ray diffractometers, electron microscopy, thermal analysis equipment, and electrochemical testing systems. They have published extensively on solid electrolyte design, with particular emphasis on argyrodites, NASICON materials, and halide conductors. Their research has important implications for the development of safer, higher-energy-density solid-state batteries. Professor Zeier's group actively collaborates with other institutions and participates in major research initiatives including the Helmholtz Institute Münster FESTBATT competence cluster and the BACCARA research school. They offer opportunities for PhD and postdoctoral researchers interested in solid-state battery development, particularly in the area of solid electrolytes and solid-state batteries.
Prof. Wangzhong Mu is a Senior Lecturer (Docent) in the Department of Materials Science and Engineering at KTH Royal Institute of Technology, Stockholm. His research focuses on sustainable metallurgy, microstructure physics, and alloy design. He leads the thermo-physical property analysis section in the Hultgren Lab and is affiliated with Digital Futures at KTH. Educations: PhD in Materials Science, KTH Royal Institute of Technology (2015) MSc/Bachelor's in Materials Science, Northeastern University, China Research Interests: Inclusion engineering and microstructure-property correlations in steels High-entropy alloy design using digital tools (AI/thermodynamic modeling) In-situ characterization via confocal microscopy and multiscale analysis Recycling-oriented steel production and CO2 reduction strategies Grants/Projects (selected): SSF Strategic Mobility Grant (2023-2024): Clean steel for sustainable future VINNOVA Mobility Grant (2022-2024): Hydrogen-based metallurgy STINT Project (2022-2023): Inclusion engineering for green steel EIT RawMaterials (ENDUREIT, 2019-2021): Durable steels at intermediate temperatures Labs/Teams: Hultgren Lab (materials characterization), Digital Futures (AI-driven metallurgy), and international collaborations with Hanyang University (South Korea), IIT Bombay (India), and Tohoku University (Japan).
