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Prof. Lars Pastewka is a Full Professor of Simulation at the Department of Microsystems Engineering (IMTEK) within the Faculty of Engineering at the Albert Ludwigs University of Freiburg. His research focuses on multiscale simulation of materials, micromechanics, and tribology, with a particular emphasis on friction, adhesion, and wear. He leads a research group developing computational methods to model materials from atomic to continuum scales. His expertise includes surface forces, material interfaces, and the design of programmable materials. Key projects include studies on self-repair mechanisms in biological and artificial materials, tribogenerators, and resilient microfluidic networks. He supervises doctoral researchers such as Indre Jödicke and Mahdi Roshani, with past student Dr. Antoine Sanner completing his doctorate under his guidance. Prof. Pastewka has contributed to open science through tools like dtool and dserver, promoting FAIR data principles. His work spans interdisciplinary collaborations in materials science, biomechanics, and computational engineering. He is actively involved in academic outreach through events like the livMatS Colloquium series and contributes to teaching programs such as the Master Lab and Core Lectures initiatives. His research has been funded by Germany’s Excellence Strategy (EXC-2193/1) and addresses challenges in surface topography analysis, hydrodynamic lubrication, and material fracture mechanics. His group’s computational frameworks, including matscipy and SYMPLER, have advanced large-scale simulations in materials science.

• Multiscale simulation of materials
• Micromechanics of materials
• Material interfaces
• +7 more

Turkka Salminen is a Staff Scientist at Tampere University's Faculty of Engineering and Natural Sciences, affiliated with the ENS Research Environment Unit. He serves as coordinator of the Tampere Microscopy Center (TMC), collaborating with Prof. Minnamari Vippola and Dr. Mari Honkanen. His expertise spans electron microscopy, focused ion beam microscopy, Raman spectroscopy, and materials characterization. Salminen advises TMC users, contributes to material characterization projects, and teaches microscopy-related courses. He also collaborates nationally and internationally with research institutes and laboratories. Research interests focus on advanced microscopy techniques, nanomaterials, tribology, and composite materials. His work bridges fundamental material science with applications in energy, biomedical, and structural systems. Recent studies include fretting degradation mechanisms, cold-sprayed composites, and bioactive glass scaffolds. Salminen has authored/co-authored over 60 peer-reviewed articles since 2007, with recent contributions in Tribology International , Material & Design , and Nano Today . His work emphasizes interdisciplinary approaches, combining experimental methods with computational modeling. Key projects involve developing novel materials for energy storage, corrosion-resistant coatings, and biomedical implants.

• Electron Microscopy
• Materials Characterization
• Tribology
• +6 more

Matthew D Goodman is a Senior Lecturer at the Materials Science and Engineering department within the Grainger College of Engineering at the University of Illinois at Urbana-Champaign. He also serves as an Education Innovation Fellow and Keen Consultant at the Siebel Center for Design. His research focuses on materials synthesis, nanocomposites, self-assembly, and engineering education innovation. Position: Senior Lecturer, Materials Science and Engineering Affiliations: Grainger College of Engineering, Siebel Center for Design Key Research Areas: Materials Science, Self-Assembly, Battery Technology, Engineering Education Goodman's work spans from fundamental materials synthesis (e.g., carbon opals, quantum dots, nanocomposites) to educational reforms in engineering curricula. His recent projects include human-centered design integration in capstone courses , materials database implementation in freshman education , and the iELITE leadership initiative for teaching excellence. His publications highlight trends in mesoporous colloids , carbon-silicon nanotubes , and self-assembled nanostructures with applications in energy storage and photovoltaics. He holds a patent on carbon opal templates for inverse opal fabrication. Scientific Awards: Education Innovation Fellow Keen Consultant

• Materials Science
• Nanocomposite Materials
• Self-Assembly
• +3 more

Mercedes Jimenez Rosado is a Professor at the University of León within the Department of Applied Chemistry and Physics, affiliated with the Faculty of Biological and Environmental Sciences and the IQUIMAB research group focused on Chemical, Environmental, and Bioprocess Engineering. PhD in Food Science and Technology from the University of Seville (2022), with thesis on "Development of soy protein matrices with the incorporation of micronutrients for use in horticulture" Supervised by Dr. Antonio Guerrero Conejo and Dr. Alberto Romero García Her research spans bioplastics, controlled release systems, and sustainable material development for both agricultural and biomedical applications. She specializes in protein-based matrices incorporating micronutrients (iron, zinc) for horticultural use, biodegradable packaging from agro-food waste, and biomedical scaffolds using collagen/chitosan hybrids with nanoparticle modifications. Recent publications demonstrate expertise in reactive extrusion, crosslinking techniques, and characterization of mechanical properties across diverse protein sources (soy, pea, gluten). She explores dual-use applications like magnetic hyperthermia and drug delivery systems, while maintaining focus on eco-friendly synthesis methods and educational innovations in sustainable technologies. Contact: mjimr@unileon.es

• Bioplastics
• Sustainable Packaging
• Controlled Release Matrices
• +4 more

Nawar Kadi is a Professor of Textile Technology at the University of Borås, Sweden, affiliated with the Department of Textile Technology within the Faculty of Textiles, Engineering and Business. He leads research in sustainable textile recycling, fiber science, and composite materials. Previously, he worked at the University of Aleppo (2002–2016) and earned his PhD in 2001 from the University of Metz (France). His teaching focuses on yarn, non-woven fabrics, and weaving technologies. Research interests include textile recycling innovations, hemp fiber processing using deep eutectic solvents, and sustainable materials development. He supervises doctoral students in these areas and collaborates on projects funded by Vinnova and the Knowledge Foundation. Recent work emphasizes eco-friendly degumming techniques for hemp fibers, machine learning applications in fiber analysis, and advanced composites from biopolymers. His contributions span over 50 peer-reviewed publications, addressing topics from fiber structure optimization to circular economy strategies in textiles. Key grants include Vinnova Project 2021-03719 and Knowledge Foundation Grant 20210067. He advises on projects at the intersection of material science and textile engineering, advocating for sustainable industrial practices.

• Textile Recycling
• Fiber Science
• Composite Materials
• +5 more

Dr. Ahu Gumrah Parry is a Lecturer in Bioinspired Soft Matter at the School of Materials, University of Manchester. She holds a BP-ICAM Dame Kathleen Lonsdale Research Fellowship (2019) and a Schlumberger Faculty for the Future Fellowship (2012). Her research focuses on sustainable nanomaterials, self-assembly processes, and biomimetic functional materials with applications in energy harvesting, sensors, and chemical separation systems. Education: B.Sc. in Chemistry, Hacettepe University, Ankara Ph.D. in Controlled Production of Carbon Nanotubes, Sabanci University, Istanbul Research Interests: Design of nanoparticles from natural and sustainable sources Self-assembly of nanomaterials for photonic structures Development of porous hydrogels/aerogels for catalytic processes Nanocomposites with metal oxides/plasmonic nanoparticles Awards: Schlumberger Faculty for the Future Fellowship (2012) BP-ICAM Dame Kathleen Lonsdale Research Fellowship (2019) Advising & Grants: Supervised 2 students (specific names unavailable). Active in interdisciplinary collaborations across materials science, chemistry, and physics. Labs & Platforms: Leads the Biofumlab (www.biofumlab.com), contributing to UN Sustainable Development Goals related to clean energy and sustainable consumption.

• Materials Science
• Nanotechnology
• Sustainable Materials
• +5 more

David Cappelleri is a Professor of Mechanical Engineering and Assistant Vice President for Research Innovation at Purdue University's West Lafayette School of Mechanical Engineering. He holds a B.S. from Villanova University, an M.S. from Pennsylvania State University, and a Ph.D. from the University of Pennsylvania. His research focuses on multi-scale robotic manipulation, mobile micro/nano robotics, micro/nano aerial vehicles, micro-bio robotics, and automation for life sciences. He leads the Multi-Scale Robotics & Automation Lab. Notable achievements include the NSF CAREER Award (2012) and the John J. Gallen Memorial Award (2013). His work spans biomedical robotics, adaptive microsystems, and agricultural automation. He has contributed to over 50 peer-reviewed publications and patents in microrobotics, magnetic actuation, and automation systems. His lab develops innovative solutions for precision agriculture (e.g., P-AgBot robots) and medical applications (e.g., drug delivery microrobots). Academic contributions include pioneering project-based robotics education methods. He is actively involved in interdisciplinary collaborations, integrating robotics with material science, bioengineering, and environmental monitoring systems.

• Multi-scale robotic manipulation
• Mobile micro/nano robotics
• Micro/nano aerial vehicles
• +7 more

Mahdiar Taheri is a Research Fellow in the School of Engineering at the Australian National University (ANU). His research focuses on advanced materials and energy systems, including solar thermal applications, nanotechnology, and sustainable energy storage solutions. He leads and collaborates on projects addressing challenges in thermal energy storage, hydrogen storage, and carbon sequestration. Key collaborations involve institutions globally, emphasizing interdisciplinary approaches to renewable energy and environmental engineering. His work spans experimental, computational, and applied methodologies, with notable contributions to nanofluids, metal-organic frameworks (MOFs), and battery technologies. Research interests include: Thermal energy conversion and storage Solar-driven chemical processes Nanomaterial synthesis and applications Hydrogen and lithium-sulfur battery systems Antimicrobial coatings and environmental remediation Projects include development of packed-bed solar reactors, coral-inspired hierarchical coatings, and scalable hydrogen storage solutions. He has secured grants for initiatives like solar thermal desalination and low-cost industrial heat supply systems. Notable contributions include: Pioneering thermodiffusive desalination techniques Advancing MOF-based hydrogen storage Designing stable high-capacity Li-S batteries His lab focuses on bridging fundamental material science with applied engineering solutions for sustainability challenges.

• Material Science
• Thermal Engineering
• Nanotechnology
• +5 more

Professor Robert Law is a Professor of Biological Materials in the Department of Chemistry at Imperial College London, within the Faculty of Natural Sciences. His research spans interdisciplinary fields including materials engineering, biochemistry, and condensed matter physics. He holds affiliations with the CDT in Chemical Biology, the Grantham Institute, the Institute of Chemical Biology, the Leverhulme Centre for Cellular Bionics, and the Membrane Biophysics Platform. Law earned his Ph.D. at the University of Strathclyde, followed by a STA-Royal Society Fellowship in Japan at the Tokyo Institute of Technology and National Institute of Materials & Chemicals. His work focuses on solid-state NMR spectroscopy, lipid membrane behavior, and biomimetic systems such as artificial cells. Key research areas include the structural analysis of lipid membranes using NMR, the development of microfluidic technologies for artificial cell engineering, and the study of membrane interactions with drugs and biomolecules. He has pioneered the use of droplet interface bilayers (DIBs) for biofluidic applications and explored pressure effects on lipid phase behavior. His lab also investigates bioactive glasses and their biomedical applications, including bone cements and dental materials. Education: Ph.D., University of Strathclyde (solid-state NMR of crosslinked polymers) Fellowship at Tokyo Institute of Technology and National Institute of Materials & Chemicals, Japan Law’s awards include Fellowship of the Royal Society of Canada (FRSC). His recent publications highlight advancements in biomimetic artificial cells, lipid phase dynamics under pressure, and functionalized membrane systems. Collaborations span departments including Materials, Chemical Engineering, and Cell and Molecular Biology. His work bridges fundamental materials science with biomedical and biotechnological applications, emphasizing interdisciplinary innovation. Grants and funding support his research into artificial cells, membrane engineering, and biomaterials. The Law Lab’s facilities include the Molecular Sciences Research Hub at Imperial’s White City Campus, enabling cutting-edge NMR and microfluidic studies.

• Materials Engineering
• Biochemistry and Cell Biology
• Condensed Matter Physics
• +3 more

Univ.Prof. Dr. José Luis Toca-Herrera is a distinguished Professor of Biophysics at the University of Natural Resources and Life Sciences Vienna (BOKU), where he serves as Head of the Institute of Biophysics within the Department of Natural Sciences and Sustainable Resources. With a career spanning over two decades in biophysics and nanotechnology, he has established himself as an international leader in the application of atomic force microscopy to biological systems. His research bridges physics, chemistry, and biology to investigate the mechanical properties of biological materials at micro- and nanoscales. Prof. Toca-Herrera's research focuses on colloidal and molecular interactions, mechanical properties of biological materials, cell-substrate and cell-cell interactions, and self-assembly interfacial phenomena. His work applies mathematical and physical models to life sciences, social sciences, and education. He specializes in spectroscopy, surface analytical techniques, soft matter physics, and scanning probe microscopy. His laboratory investigates how physical forces influence cellular behavior, particularly in cancer research, where mechanical properties serve as biomarkers for disease progression. His publication record demonstrates a consistent trajectory of high-impact research in biophysics, with recent work spanning cancer cell mechanics, protein-lipid interactions, environmental applications of nanotechnology, and interdisciplinary studies bridging physics with social sciences. His team regularly publishes in top journals across physics, biophysics, and materials science, with multiple cover features recognizing the significance of their work. Scientific Recognition: Multiple cover features in prestigious journals including Small, Microscopy Research and Technique, Biotechnology Journal, and Toxins Visiting professorships at AGH University of Science and Technology in Krakow, Poland Best poster awards at European Colloid and Interface Society conferences Major research grants including Marie Curie, Ramón y Cajal, and Wellcome Trust funding Prof. Toca-Herrera leads several major research projects including the Human ECM-based platform for anti-cancer drug testing (CARES), Hierarchical polymer niches for enhanced cell attachment, and Adaptations for fog and dew harvesting in cactus spines. His international collaborations span Europe, Asia, and the Americas, with presentations delivered in over 15 countries. His laboratory combines atomic force microscopy with other biophysical techniques to create a comprehensive understanding of biomaterials at multiple scales. His research group operates within BOKU's advanced facilities for biophysics and nanotechnology, contributing significantly to the university's research profile in sustainable resource management and life sciences. The team's work has important implications for cancer diagnostics, drug delivery systems, and environmental applications of nanotechnology.

• Biophysics
• Nanotechnology
• Soft Matter Physics
• +6 more

A. Accardo is a researcher in the Department of Micro and Nano Engineering within the Faculty of Mechanical, Maritime and Materials Engineering at Delft University of Technology. Their work focuses on cutting-edge applications in biomedical engineering, particularly in 4D printing, radiobiology, and engineered cell microenvironments. Accardo actively contributes to high-impact research and interdisciplinary collaboration. Research Interests: A. Accardo's research spans advanced materials and biomedical technologies. Key areas include two-photon polymerization , 4D printing of hydrogels , engineered cell microenvironments , and in vitro disease modeling . Their work integrates nanotechnology with mechanobiology to develop novel tools for cancer therapy and regenerative medicine. The recent publications demonstrate a strong trend toward developing smart, responsive biomaterials for medical applications. These include shape-morphing hydrogels, microarchitectures for radiation therapy analysis, and benchmark platforms for radiobiology. The research is highly interdisciplinary, combining mechanical engineering, materials science, and clinical applications. Scientific Awards: TU Delft Health Initiative Pilot Award (2020) Advising and Grants: Accardo has supervised at least three research projects or students, indicating an active mentoring role. The receipt of the TU Delft Health Initiative Pilot Award suggests successful grant acquisition, supporting innovative health-related research with significant external recognition and media coverage. Labs and Teams: The research is conducted within a collaborative network focused on micro and nano engineering for biomedical applications, likely involving partnerships across institutions and disciplines, as evidenced by co-authorship with international researchers and multi-institutional projects.

• Mechanical Engineering
• Micro and Nano Engineering
• Biomedical Engineering
• +7 more

Claire Bastie is an Associate Professor (Teaching Focussed) in Metabolic Biochemistry at Warwick Medical School, University of Warwick, within the Department of Biomedical Sciences. She earned her Ph.D. from INSERM's Centre of Biochemistry at Nice-Sophia-Antipolis (France), followed by postdoctoral training and a Research Instructor position at the State University of New York. She established her independent research lab at Albert Einstein College of Medicine in New York in 2010 with NIH funding, maintaining a joint appointment with Warwick Medical School from 2011-2015 before relocating permanently to Warwick. Her research investigates nutrient sensing pathways in metabolic diseases with three primary foci: Fyn tyrosine kinase regulation of adipose tissue biology in obesity Maternal-fetal metabolic signaling in pregnancies complicated by obesity/diabetes Autophagy and energy homeostasis in diabetes pathogenesis Publications demonstrate consistent emphasis on molecular mechanisms of diabetes, spanning basic kinase signaling (Fyn/AMPK), clinical studies on glycemic control technologies, and placental biology. Recent work highlights extracellular vesicles in gestational disorders and diabetic kidney disease mechanisms. Research funding includes: Medical and Life Sciences Research Fund (2021): Hyaluronic acid hydrogels for breast reconstruction fat graft survival Historic NIH support for lab establishment at Albert Einstein College of Medicine She leads the Nutrient Sensing Laboratory investigating metabolic cross-talk between tissues, with active projects on adipose plasticity and gestational diabetes pathophysiology.

• Metabolic Biochemistry
• Nutrient Sensing Pathways
• Obesity
• +3 more

Jan Gustafsson serves as a Senior Lecturer in Natural Materials Engineering at Åbo Akademi University's Faculty of Science and Engineering. His research focuses on developing sustainable biomaterials with particular emphasis on nanocellulose, lignin, and composite materials that contribute to multiple UN Sustainable Development Goals. His work bridges fundamental materials science with practical applications for environmental sustainability. Dr. Gustafsson's research interests center on sustainable materials development, with specific expertise in: Nanocellulose processing and applications Lignin modification and utilization Biomass waste valorization (particularly sawmill waste) Green composite development Sustainable packaging solutions Photocatalytic materials from renewable resources His publication record spans from 1999 to the present, with significant recent output in 2025. Analysis of his articles reveals a consistent focus on transforming natural polymers into advanced functional materials, with increasing emphasis on circular economy principles and industrial applications. His work demonstrates strong progression from fundamental material characterization to applied sustainable technologies. Dr. Gustafsson actively secures research funding through competitive channels, currently leading or co-leading two major projects: EFP: Emission Free Pulping (2024-2026, Business Finland) where he serves as Co-Principal Investigator Kestävästi tiläsävä! (2023-2025, European Regional Development Fund) where he is Principal Researcher His research group, the Laboratory of Natural Materials Technology, focuses on creating sustainable material solutions through innovative processing of renewable resources, with strong connections to both academic and industrial partners in the Nordic region and beyond.

• Nanocellulose
• Lignin
• Biomaterials
• +6 more

Marjaana Parikainen is affiliated with the Faculty of Natural Sciences and Technology and contributes to the InFLAMES (Innovation Ecosystem based on the Immune System) flagship program. Her research spans interdisciplinary domains, combining nanotechnology, plant biology, and biomedical applications. InFLAMES Flagship Member Faculty of Natural Sciences and Technology Research interests include: Nanoparticle-mediated drug delivery systems Xenogeneic-free stem cell therapies Thermal acclimation in cyanobacteria Integrin signaling in cancer progression Nitrogen deficiency responses in photosynthetic organisms RNA polymerase subunit functions Academic contributions include peer-reviewed publications since 2014 in journals such as Materials Today Bio , Colloids and Surfaces A , and Oncotarget . Her work demonstrates cross-disciplinary expertise in: Nanocomposite hydrogels for tissue engineering Stem cell therapy biomaterials Integrin-mediated cancer cell behavior Plant stress physiology

• Nanoparticle-mediated Drug Delivery
• Stem Cell Therapy
• Thermal Acclimation
• +7 more

Yury Brusentsev is a Researcher at the Faculty of Natural Sciences and Engineering within Åbo Akademi University , focusing on technologies for a sustainable future. His work bridges materials science and chemical engineering. Research Interests : Hydrogel and biomaterial development Nanocellulose-based networks Flame retardant polymer systems Shape-memory materials Green chemistry transformations Scientific Trends : His recent publications highlight advancements in covalently crosslinked nanocellulose structures, single-network hydrogels, and multifunctional flame retardants for polypropylene. Collaborative work spans biomaterials, polymer stability, and sustainable manufacturing. Collaborations : Active in international networks with external collaborations in materials science and chemical engineering domains.

• Hydrogel
• Biomaterials
• Nanocellulose
• +3 more