Sergiy Minko is the Georgia Power Professor of Fiber and Polymer Science at the University of Georgia's College of Family and Consumer Sciences, specifically within the Department of Textiles, Merchandising and Interiors. His research focuses on nanostructured materials, responsive materials, biomaterials, biointerfaces, and functional fibers/textiles. He leads a lab innovating in biocompatible nanofiber scaffolds, smart polymer interfaces, and sustainable textile technologies. Research Interests: - Development of stimuli-responsive materials for biomedical applications - Advanced polymer processing techniques (e.g., touchspinning, magnetospinning) - Nanocellulose-based materials for environmental and biomedical uses - Smart textiles integrating energy harvesting and sensing capabilities Recent work emphasizes biomedical applications of nanomaterials (e.g., antioxidant PCL fibers, cell detachment strategies) and sustainable solutions like dye degradation using MOFs and eco-friendly dyeing methods. Over 150 peer-reviewed articles demonstrate his contributions to biomaterials, nanotechnology, and polymer science.
Dr. Sen Subramanian is Professor and Dean of the College of Natural Sciences at South Dakota State University, with joint appointments in the Departments of Agronomy, Horticulture and Plant Science, and Biology and Microbiology. His research program focuses on sustainable nitrogen management through biological fixation. Primary research areas include: 1) Hormone signaling mechanisms regulating soybean nodule development, particularly auxin-cytokinin interplay; 2) Plant microbiome optimization for enhanced nutrient uptake and disease resistance; 3) Climate-resilient nitrogen fixation via rhizobial adaptation. Recent publications (2020-2024) demonstrate strong emphasis on rhizobia-soybean interactions under abiotic stress, nanoparticle effects on symbiosis, and intercropping systems for GHG mitigation. As senior investigator in 2DBEST (NSF EPSCoR center), he leads genomics initiatives on plant-microbe communication. Teaches graduate courses in plant genetics and serves as Gamma Sigma Delta Agriculture Honor Society president (2019). Research funded by NSF EPSCoR and agricultural commodity groups.
Prof. Dr. Oya Tagit is a Lecturer and Team Leader of the BioInterfaces group at the Institute for Chemistry and Bioanalytics, part of the School of Life Sciences at FHNW University of Applied Sciences and Arts Northwestern Switzerland. Her research focuses on engineered nanoparticles and biointerfaces for biomedical applications, including drug delivery and cancer therapy. She has secured significant funding, including an EU Marie Sklodowska-Curie grant (NanoSense 2012-2014) and has been recognized with awards such as the Best Paper Award for her work on PLGA particles (2019). Her research spans nanomedicine, biomaterials, and therapeutic mechanisms, with a strong emphasis on translating lab-scale innovations into industrial applications. Key research interests include nanoparticle engineering for targeted drug delivery, modulation of biological systems, and the development of diagnostic tools. Her publications highlight advancements in nanocarriers, thermoresponsive materials, and neoantigen vaccines. She leads interdisciplinary projects involving continuous manufacturing processes and scale-up challenges in nanomedicine production. Awards and grants underscore her contributions to the field: the EU grant supported her work in Paris, while her 2019 paper on PLGA particles exemplifies her expertise in nanoparticle design and biological evaluation. Her team’s innovations bridge laboratory research with industrial applications, addressing scalability and clinical translation. Advising and grants include leadership in the BioInterfaces team and collaboration on EU-funded projects. Her work has implications for treating cancers, endocrine disorders, and improving diagnostic accuracy through nanotechnology.
Dr. Patrick van Rijn is an Associate Professor at the Faculty of Medical Sciences, University of Groningen, and the Group Head of the M&N (Materiobiology & Nanobiomaterials) research group. He holds a PhD in Organic/Physical Chemistry from Delft University of Technology (2010) and a BSc/MSc in Chemistry from the University of Groningen (2005). His research focuses on biomaterials, nanobiotechnology, and high-throughput screening to direct cellular behavior through material properties. He coordinates the research line 'Nanobiotechnology and Advanced Therapeutic Materials' at the W.J. Kolff Institute and chairs the Dutch Society for Biomaterials and Tissue Engineering (NBTE). Education includes a postdoctoral fellowship at RWTH Aachen University (2010–2013) and roles as an affiliated Principal Investigator at the Zernike Institute for Advanced Materials. His teaching responsibilities include coordinating Biomaterials courses at the BSc and MSc levels and mentoring biomedical engineering students. Key research areas involve smart interfaces, polymer hydrogels, and nanogels for biomedical applications. Scientific contributions include over 120 publications, with recent work on fibrosis modulation, scaffold design, and regulatory frameworks for biomaterials. Awards include the Alexander von Humboldt Fellowship (2011–2013). He actively organizes conferences such as the NBTE annual meeting and collaborates internationally on biomaterials innovation.
Mohammad Nasr Esfahani is a Senior Lecturer in Mechanical Engineering at the University of York's School of Physics, Engineering and Technology. He serves as Director of Teaching and Learning (Engineering) and leads the Advanced Materials for Functional Safety research group. His research focuses on nanotechnology, advanced materials, and micro/nano-fabrication for applications in biomedical sensors, energy systems, and functional safety. He develops computational models and experimental approaches to improve system reliability and performance. Professor Esfahani is a Fellow of the UK Higher Education Academy and member of IEEE and IMechE. He serves on the editorial board of Frontiers in Lab on a Chip Technologies.
Dr. Chakaveh Ahmadizadeh is a Lecturer at the Department of Health Sciences and Technology, ETH Zürich. Her research focuses on biomedical and mobile health technology, particularly in wearable sensing systems for physiological and movement monitoring. Position: Lecturer Institution: ETH Zürich Research Interests: Wearable sensors, machine learning for health, smart textiles, physiological signal processing Recent work highlights include: Textile-based capacitive strain sensors for robust hand gesture recognition Multi-plane knee angle monitoring systems Machine learning integration for FMG signal analysis Passive wireless textile sensors for movement tracking Sweat resistance testing for wearable health applications
Markus Linder is a Professor in the Department of Bioproducts and Biosystems at Aalto University, specializing in Biomolecular Materials. He leads cutting-edge research in biosynthetic materials, with a focus on genetically engineering proteins from natural sources such as silk and barnacle cement to develop sustainable, high-performance materials. His work is closely tied to the LIBER Centre of Excellence and several major research projects, including NextSkins and FIRI BioFoundry, which aim to pioneer living and hybrid materials. Education: Doctoral degree in Engineering and Technology, Helsinki University of Technology (1997) Master's degree in Engineering and Technology, Helsinki University of Technology (1993) His research interests center on biosynthetic materials , where he uses genetic engineering to design proteins that self-assemble into functional materials. These materials are produced in microbes and can exhibit properties like self-healing, adaptability, and high toughness. His vision includes replacing petrochemical-based materials with bio-derived alternatives, contributing to sustainability and the UN Sustainable Development Goals. A key focus is on spider silk proteins, hydrophobins, and phase separation phenomena in protein solutions. The recent research articles (2019–2025) reflect a strong trend in protein engineering , self-assembly , and sustainable material fabrication . Topics include artificial spider silk spinning, hydrogel design, protein quantification methods, and microbial-based living materials. These works span disciplines such as material science, biophysics, analytical chemistry, and synthetic biology, often published in high-impact journals like Nature Materials and Advanced Functional Materials . Scientific Awards: VTT Prize for Scientific Excellence (1998) Leading edge-lecturer (2015) Linder actively supervises students and postdoctoral researchers, with over 15 theses supervised. He has secured significant research grants and leads multiple projects funded by national and EU sources. His academic service includes membership on editorial boards, evaluation of funding applications, and participation in tenure track committees. He also engages in public outreach, such as presenting on life-inspired materials to non-academic audiences. Linder is a key figure in the LIBER Centre of Excellence , where interdisciplinary teams from bioscience, physics, chemistry, and computational modeling collaborate to develop hybrid materials inspired by biological systems. The center focuses on life-like properties such as growth, adaptation, and signal transmission, aiming to create next-generation interactive materials.
Dr. Conrado Aparicio is an ICREA Research Professor at the Department of Materials Science and Engineering , Universitat Politècnica de Catalunya (UPC), since September 2024. He leads the Bioinspired Oral Biomaterials and Interfaces (BOBI) Lab , focusing on advanced biomaterials for tissue repair in dental and biomedical applications. Previously, he spent over 12 years at the University of Minnesota as Deputy Director of the Minnesota Dental Research Center for Biomaterials and Biomechanics, and later served as Vice-Rector for Research at UIC Barcelona–Universitat International de Catalunya. ICREA Research Professor, UPC (2024–) Group Leader of BOBI Lab (2024–) Deputy Director, Minnesota Dental Research Center (2012–2024) Vice-Rector for Research, UIC Barcelona (2024–) His research integrates bio/non-bio interactions and nature-inspired design to develop functional biomaterial surfaces for implants, tissue interfaces, and infection control. Key areas include: Biomaterials for bone and dental regeneration Antimicrobial peptide coatings Self-assembled nanostructures Surface engineering for implant integration Biofilm and infection prevention Notably, he has pioneered dual-function coatings combining antimicrobial activity with tissue adhesion, such as keratinocyte-specific peptide surfaces and GL13K peptide nanocoatings . His work on degradation-resistant polymers and bioactive scaffolds addresses long-term implant durability. Recent publications highlight innovations in: Dual-action antimicrobial and osteogenic surfaces Peptide-based nanofiber membranes Biomimetic mineralization techniques Implant biofilm control systems He was elected a Fellow of the American Institute for Medical and Biological Engineering (AIMBE) , reflecting his contributions to biomaterials science and clinical translation.
Dr. Aicheng Chen is a Canada Research Chair in Electrochemistry and Nanoscience (Tier 1) at the University of Guelph, funded by the Natural Sciences and Engineering Research Council (NSERC). His research focuses on designing functional nanomaterials and developing green technologies to address global challenges in energy, environment, and healthcare. Key areas include hydrogen economy strategies, electrochemical catalyst design, and nanocomposite synthesis for sustainable energy applications. Research Interests: Single-atom catalysts and quantum dots for clean energy Electrochemical sensing of pollutants and biomarkers Ferroelectric hydrogels and piezoelectric materials Hydrogen storage using graphene-based nanomaterials Recent work emphasizes overcoming barriers to hydrogen production/storage and advancing CO₂ reduction technologies. His lab collaborates with NSERC and uses advanced characterization tools like synchrotron X-ray spectroscopy. Grants & Collaborations: Current NSERC Tier 1 Chair (2025 renewal). Research involves partnerships with institutions like the Canadian Light Source.
Eduardo Mendes is an Associate Professor in the Department of Chemical Engineering at Delft University of Technology (TU Delft), Faculty of Applied Sciences. He leads the Advanced Soft Matter (ASM) research group and has been at TU Delft since 2003. He also served as a visiting professor at Cornell University in 2014. His academic background is in physics, with a PhD on polymer gels from France and a "Habilitation à diriger des recherches" (hab.). Eduardo Mendes' research focuses on "Functional Soft Matter," primarily working with gels and self-assembled molecules. He employs microfabrication, microfluidics, and 3D printing to develop responsive and functional soft materials. His work spans applications from magneto- and light-responsive surfaces to drug nanocarriers, tissue engineering, and lab-on-a-chip virus detection. He actively collaborates with chemists and biologists on interdisciplinary projects. His recent publications show a strong trend in supramolecular chemistry, stimuli-responsive hydrogels, and biomimetic materials, with work published in high-impact journals like Nature, Nature Chemistry, and Angewandte Chemie. Key themes include transient networks, self-assembly control, and the development of advanced soft devices. Henk Dekker Prize 2021 for Art-Embedded Learning Eduardo Mendes is deeply committed to education. He is the Director of the "Awareness & Culture" Specialisation within the BSc TU Delft Interfaculty Honours Program, a program based on his concept of "Art Embedded Learning in Higher Education." He teaches courses such as Polymer Science, Molecular Thermodynamics, and innovative art-ethics courses like "Art, Empathy & Ethics" and "Matter of Art" in collaboration with the Royal Academy of Art. He also gives a yearly lecture on Polymer Gels at the Dutch National Graduate School PTN/RPK. His lab, the Advanced Soft Matter group, is based in Building 58, D2.320, Van der Maasweg 9, Delft.
Dr. Tamás Haraszti is a Project Leader and Data Protection Commissioner at RWTH Aachen University, actively engaged in interdisciplinary research at the intersection of soft matter physics and biomedical engineering. His work is centered on hydrogels, microgels, and biomaterials for tissue engineering and synthetic biology applications. His research interests span Soft Matter Physics , Hydrogels , Biomaterials , Tissue Engineering , Microgels , and Synthetic Biology . He investigates how material properties influence cellular behavior, including phagocytosis, migration, mechanical actuation, and immune responses. His work integrates polymer chemistry, biophysics, and regenerative medicine to develop functional platforms for disease modeling and therapeutic intervention. The recent publications highlight a strong trend toward engineering advanced biomaterials with controlled mechanical, structural, and biochemical properties. These include bioprinted kidney fibrosis models, antibody-functionalized cytokine scavengers, magneto-responsive scaffolds, and synthetic cells capable of mimicking bacterial division. The research demonstrates a consistent focus on translational biomaterial design and cellular interface engineering. Dr. Haraszti has not been publicly recognized with any scientific awards in the provided text. He collaborates extensively with leading researchers such as Laura De Laporte, C. Rodriguez-Emmenegger, and others in the development of novel hydrogel systems. While no formal students or grant funding are mentioned, his role as project leader indicates leadership in research initiatives. His work contributes significantly to the advancement of smart biomaterials and their biological integration. He is part of a dynamic research environment focused on soft matter and biomedical materials, likely operating within a collaborative lab or institute structure at RWTH Aachen University.
Professor Alexander Sidorenko serves in the Department of Chemistry and Biochemistry at Temple University, specializing in physico-chemical phenomena at interphases and nanostructured materials. His research focuses on designing "smart" materials with applications spanning molecular electronics to bioengineering. Dr. Sidorenko's research interests center on polymer chemistry and biomaterials, particularly in developing bio-benign molecular brushes and polymer CORALs (Co-Ordinated Responsive Arrays of surface Linked islands). His work employs supramolecular chemistry approaches for 2D and 3D assembly, creating adaptive hybrid materials for biomedical applications including drug delivery systems and tissue engineering scaffolds. Key innovations include chitosan-based comb-like polypeptides with antibiotic properties and solvent-responsive surface architectures. His publication record demonstrates consistent output in high-impact journals including Macromolecules , ACS Applied Materials & Interfaces , and Langmuir , with significant contributions to polymer brush technology and nanostructured materials. The research shows strong interdisciplinary trends, bridging pharmaceutical sciences, materials engineering, and surface chemistry. Dr. Sidorenko actively collaborates with researchers from the Department of Pharmaceutical Sciences and the West Center for Computational Chemistry and Drug Design. His laboratory develops novel synthetic methodologies for creating adaptive hybrid molecular brushes composed of biopolymers like chitosan with synthetic polymers including polylactide and poly(N-vinyl pyrrolidone), focusing on applications for guiding human dermal fibroblasts and antimicrobial activity.
James Weiland is a Professor in Biomedical Engineering at the University of Michigan Medical School and holds a joint appointment as Professor in the Ophthalmology and Visual Sciences Center. He is also a Member of the Biosciences Initiative Center, Robotics Institute Center, and Biointerfaces Institute at the University of Michigan. His academic career spans multiple interdisciplinary fields bridging engineering and medicine. Weiland's primary research focuses on visual prosthetics and neural interfaces, particularly developing retinal and cortical prostheses to restore vision for individuals with retinal degenerative diseases. His work encompasses neural engineering, biomaterials, microfabrication of neural interfaces, computational modeling of neural responses to electrical stimulation, and clinical translation of visual prosthetic devices. He has made significant contributions to the development of carbon fiber microelectrodes, wireless neural stimulators, and patient-specific computational models for retinal prostheses. Analysis of Weiland's recent publications (2023-2025) reveals a strong emphasis on improving the spatial resolution and perceptual quality of visual prostheses through advanced electrode design, stimulation strategies, and computational modeling. His research spans from fundamental neural interface materials and fabrication techniques to clinical studies with Argus II retinal prosthesis users. Current work focuses on subcellular-scale carbon fiber electrodes, wireless neural stimulation systems, phosphene optimization, and understanding cortical plasticity in response to visual prosthetic use. Weiland has secured substantial research funding from NIH, NSF, and industry partners including Ford Motor Company. His active grants include projects on multi-modal navigation interfaces for the visually impaired, flexible carbon fiber neural interfaces, intraretinal stimulation for high acuity artificial vision, and brain-computer interfaces for speech restoration. His research program demonstrates a strong translational focus from basic neural engineering to clinical applications. Professor Weiland directs research in neural prosthetics and visual rehabilitation, with laboratory work spanning neural interface design, microfabrication, computational modeling, and clinical studies with visually impaired patients. His interdisciplinary team bridges engineering, neuroscience, and ophthalmology to advance visual prosthetic technology and understanding of the visual system in health and disease.
