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Aparicio Badenas, ConradoView profile

Research Professor

• biomaterials
• dental materials
• surface engineering
• +8 more

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.

Aicheng ChenView profile

Professor

• Electrochemistry
• Nanomaterials
• Sustainable Energy
• +3 more

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.

Nikolai KaluginView profile

Professor

• Quantum Materials
• Functionalized Interfaces for Biomedical Applications
• Quantum Information Technologies
• +3 more

Nikolai Kalugin is a Professor in the Department of Materials and Metallurgical Engineering at New Mexico Tech. His research focuses on quantum materials, functionalized interfaces for biomedical applications, and the intersection of light-matter interactions in two-dimensional materials. He leads efforts to create quantum phases via Floquet engineering and designs bio-compatible carbon-based electrodes for neuroscience applications. Education: Ph.D. in Solid State Physics/Micro- and NanoElectronics (1997), Institute of Applied Physics of the Russian Academy of Sciences M.S. in Engineering Electrophysics (1989, Summa Cum Laude), Nizhny Novgorod Technical University B.S. in Applied Physics (1987), Nizhny Novgorod Technical University Research Interests: Dr. Kalugin explores quantum materials' dynamic properties under light-driven conditions, aiming to engineer topological states 'on demand.' He also develops biofunctionalized carbon interfaces to address limitations in neuroelectrode technologies. His work bridges quantum physics, materials science, and biomedical engineering. Key Projects: Current initiatives include a new quantum materials education program at New Mexico Tech and collaborations on mid-infrared irradiation of graphene to induce stable Floquet states. His lab also investigates covalent peptide decoration of carbon surfaces for selective neuron targeting. Grants & Labs: Active in multi-disciplinary research groups focusing on quantum technologies and bioelectronic interfaces. Coordinates cross-institutional student involvement in quantum materials research.

Eduardo MendesView profile

Associate Professor

• Soft Matter
• Gels
• Polymers
• +12 more

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.

• Biosensors
• Bioengineering
• Biomedical Technologies
• +7 more

Professor A. T. A. Jenkins is a faculty member in the Department of Chemistry at the University of Bath, affiliated with the Centre for Bioengineering & Biomedical Technologies (CBio) and the Institute of Sustainability and Climate Change. He holds the academic rank of Professor and is actively involved in research and doctoral supervision. His research focuses on biosensors , tethered bilayer lipid membranes , and stimuli-responsive polymers , with applications in biomedical diagnostics and sustainable technologies. His work bridges chemistry, engineering, and environmental science, emphasizing functional biomimetic interfaces. The recent publications indicate a strong focus on membrane biophysics and sensor development, particularly in the incorporation of pore-forming proteins like α-hemolysin into synthetic membranes. These studies contribute to the design of next-generation biosensors and lab-on-a-chip devices. Professor Jenkins has led or contributed to 37 research projects and has produced 169 research outputs, including patents and books, highlighting sustained scholarly productivity. He has supervised 28 research students and is currently accepting new doctoral candidates, reflecting his active role in academic training and research leadership.

Erwin ReisnerView profile

Professor

• Artificial Photosynthesis
• Solar Fuels
• Sustainable Chemistry
• +6 more

Professor Erwin Reisner is a leading academic in energy and sustainability at the University of Cambridge , affiliated with the Yusuf Hamied Department of Chemistry and St John’s College . He directs the Christian Doppler Laboratory for Sustainable SynGas Chemistry and co-leads the EPSRC Center for Doctoral Training in Functional and Sustainable Nanoscience. Research Focus: Artificial photosynthesis, solar fuels, CO2 valorization, and waste-to-chemicals technologies. Interdisciplinary Leadership: Integrates synthetic chemistry, nanoscience, and biotechnology for circular economy solutions. Key Collaborations: Active in Cambridge Global Challenges , emphasizing SDG-driven research. His lab develops photocatalytic systems using nanostructured semiconductors and enzymes to convert CO2, water, and waste into sustainable fuels. Recent publications highlight innovations in CO2-to-fuel conversion , floating solar panels , and biohybrid catalysis . Awards include leadership roles in EPSRC-funded networks and the Christian Doppler Society.

• Soft Matter Physics
• Hydrogels
• Biomaterials
• +7 more

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.

• Biosensors
• Polymer Science
• Nanomaterials
• +3 more

Markus Pesonen, holding a Master of Science degree, is affiliated with the Faculty of Science and Engineering as part of the research initiative FNT Common Technologies for a Sustainable Future . His work bridges materials science and sustainable engineering with a focus on functional nanomaterials and sensor development. Research interests center on electrochemical biosensors utilizing impedimetric techniques, biorecognition layers, and DNA hybridization on gold electrodes, alongside polymer nanocomposites including polythiophene and poly(vinyl chloride) films. His nanomaterials expertise spans graphene oxide barrier applications and cellulose-based conducting inks, frequently employing ATR-FTIR spectroscopy for characterization. Key contributions address sustainable solutions for packaging barriers and flexible electronics. Analysis of his 18 publications (2012-2019) reveals a strong trajectory in sustainable materials, with recent work (2016-2019) emphasizing reduced graphene oxide barriers in PVC films, cellulose nanocrystal inks, and voltage-dependent graphene oxide reduction. These studies demonstrate interdisciplinary approaches combining electrochemistry, polymer science, and nanotechnology to solve real-world material challenges. Pesonen operates within the collaborative framework of FNT Common Technologies for a Sustainable Future , where his research on biorecognition layers, herring sperm DNA probes, and polythiophene films contributes to next-generation sensing platforms and eco-friendly electronic materials.

Igal SzleiferView profile

Professor

• Molecular Modeling
• Biointerfaces
• Biocompatible Materials
• +4 more

Igal Szleifer is a Professor at Northwestern University in the Department of Chemistry, holding the Christina Enroth-Cugell Professorship in Biomedical Engineering and affiliated with the Chemistry of Life Processes Institute (CLP). His interdisciplinary work bridges medicine, biology, chemistry, physics, and materials science through molecular modeling of biointerphases. His academic foundation includes: B.Sc. in Chemistry from Hebrew University of Jerusalem, Israel Ph.D. summa cum laude from Hebrew University of Jerusalem, Israel Professor Szleifer develops theoretical frameworks to study molecular-scale interactions between synthetic materials and biological systems. His research group focuses on predicting how molecular factors govern biocompatibility, enabling rational design of drug carriers and biomaterials. This dual approach combines fundamental understanding of interfacial phenomena with practical engineering applications, consistently through experimental-theoretical collaborations. His 2011 publications reveal dominant trends in computational biophysics and soft matter, with recurring themes in nanoparticle design, membrane biophysics, and responsive polymer systems. These works demonstrate how molecular simulations translate to macroscopic material properties, particularly in drug delivery and biosensing contexts. No specific awards are documented in the source material, though his research appears in high-impact journals including Journal of the American Chemical Society and Biophysical Journal. Professor Szleifer maintains active collaborations with experimental labs across disciplines and has supervised graduate students. His grant-supported research emphasizes predictive modeling as a tool for materials innovation, particularly in biomedical applications requiring precise molecular control. As a core member of the Chemistry of Life Processes Institute, he contributes to Northwestern's interdisciplinary ecosystem focused on chemistry-driven life sciences research.

Chen YiranView profile

Professor

• Mass Spectrometry
• Proteomics
• Peptidomics
• +7 more

Chen Yiran is a Researcher at the Agricultural Biotechnology Research Center, Academia Sinica , where he has contributed to mass spectrometry , proteomics , and plant immunity . He serves as Chairman of the Taiwan Mass Spectrometry Society and holds Professor positions at National Chung Hsing University (Center for Biotechnology Development), National Taiwan University (Institute of Biotechnology/Systems Biology Program), and National Taiwan Ocean University (Department of Life Science and Biotechnology). His work spans peptidomics , DNA adductomics , and plant-microbe interactions . Chen's research integrates mass spectrometry with bioinformatics to study environmental health risks, plant immune signaling, and disease mechanisms. His team has developed tools like the FeatureHunter software for adduct detection and UniQua signal processor for proteomics. Current projects include CAPE9 peptide characterization for plant immunity and oxidative stress analysis in metabolic disorders. 2025: Outstanding Talent Development Foundation Leap Lecture 2024: Taiwan Mass Spectrometry Society Outstanding Scholar Award 2016: Academia Sinica Young Scholars Research Book Award 2015: Yang Xiangfa Agricultural Sciences Young Scholar Award Laboratory members include doctoral students Ying Guangting , Anciotti , and Jiefan . The lab operates at Academia Sinica's Agricultural Science Building A523 , with equipment for advanced chromatography-mass spectrometry and proteome analysis . Collaborations span National Taiwan University , Stanford , and UC Davis alumni networks.

Hana LísalováView profile

Researcher

• Bio-surface science
• Biointerfaces
• Surface chemistry
• +5 more

Hana Lísalová serves as a Researcher at the Institute of Physics of the Czech Academy of Sciences in Prague, where she founded the Laboratory of Functional Biointerfaces in 2019. Previously, she held a research scientist position at the Institute of Photonics and Electronics (Czech Academy of Sciences) from 2008 and completed postdoctoral training at the University of Washington's Chemical Engineering Department (2006–2008). Her academic foundation includes a Ph.D. in biophysics from Charles University in Prague. Research interests span bio-surface science, biointerface chemistry, and functional material development with emphasis on antifouling coatings , advanced biosensors , and biomimetic cell-on-a-chip systems for biomedical applications. Lísalová's work centers on surface-mediated biomolecular interactions, driving innovations in diagnostic platforms and bioanalytical tools. She leads the Laboratory of Functional Biointerfaces, focusing on next-generation interface engineering for medical and analytical technologies.

• Biointerfaces
• Polymer Science
• Hydrogels
• +7 more

Ryan R. Hansen is an Associate Professor in the Department of Chemical Engineering at Kansas State University's College of Engineering. As the Wayne and Barbara Harms Keystone Research Scholar, he leads the Hansen Biointerface Lab, focusing on synthetic biofunctional materials for microbial biotechnology and sustainability. Education : Ph.D. in Chemical Engineering (University of Colorado Boulder, 2008), B.S. in Chemical Engineering (Colorado School of Mines, 2001) Professional Experience : Postdoctoral researcher at Colorado School of Mines; researcher at Oak Ridge National Laboratory's Center for Nanophase Materials Sciences. Research Interests center on designing biointerfaces , hydrogels , and polymer systems for microbial screening, sustainable agriculture, and bioelectrochemical protection. His work bridges chemical engineering, polymer science, and microbiology to advance food-energy-water system sustainability. Scientific Awards include the NSF CAREER Award, K-State Alumni Award for Faculty Excellence, Carl R. Ice College Outstanding Assistant Professor Award, and Engineering Award for Excellence in Undergraduate Teaching. Publications span 30+ journal articles and 5 patents , with recent trends in photodegradable hydrogels , microbial consortia , and electroactive bacteria coatings .

• Nanotechnology
• Biomedical Engineering
• Microscopy
• +7 more

Jaroslaw Jacak is a Professor at the University of Applied Sciences Upper Austria (FH Linz), where he leads research in nanotechnology and biomedical engineering. He is affiliated with the Center of Excellence Medical Engineering/TIMed Center and directs NASAN - Nano Structuring and Bio-Analytics. His work bridges advanced imaging, nanofabrication, and biomedical applications with significant research output spanning over two decades. Dr. Jacak's research focuses on cutting-edge technologies in biomedical engineering: Nanoscale imaging and manipulation using STED lithography 3D bioprinting and microfabrication techniques Extracellular vesicle research and therapeutic applications Stem cell differentiation on engineered scaffolds Single-molecule analysis of cellular interactions Microfluidic systems for cell analysis Photochemical processes for biomaterial development His recent publications (2023-2025) demonstrate a clear trajectory toward precise nanoscale tools for biological investigation, with emphasis on multiphoton lithography, protein photoresists, and extracellular vesicle purification. The research shows strong integration of physics, engineering, and biology to solve complex biomedical challenges. Dr. Jacak has secured substantial research funding through multiple competitive projects: BF-SigSim (2024-2025): As Co-PI, developing signaling pathway simulation for gene expression prediction LiSSCeD (2018-2022): As PI, creating 3D lithographical scaffolds for stem cell differentiation Vascular MicroLab (2018-2021): As PI, characterizing thrombocyte aggregation under flow conditions Bioceta (2018-2023): As PI, biophysical characterization of extracellular bioparticles for therapeutic application He leads the NASAN research group which has developed groundbreaking techniques using STED lithography for single-protein capacity nano-anchors and advanced imaging applications. His team maintains strong collaborations across European research institutions and has produced over 116 research outputs with significant citation impact (h-index: 22).

• Materials Science
• Nanotechnology
• Wood Science
• +5 more

Tanja Zimmermann is the Director of Empa since June 2022 and holds a Professorship at the Department of Materials (D-MATL) within the School of Engineering (STI) at ETH Zurich/EPFL. She has held leadership roles at Empa, including Head of the Functional Materials Department (2017-2022) and Head of the Applied Wood Materials Laboratory (2011-2017). Her research spans biomimetic materials, cellulose-based nanotechnology, and sustainable systems. Education : PhD from Empa/University of Hamburg (2002-2006) Master of Advanced Studies in Secondary and Higher Education, ETH Zurich (1997-2001) MSc in Wood Science and Technology, University of Hamburg (1987-1992) Her research focuses on cellulose nanocomposites , biomimetic membranes and textiles , and resource-efficient manufacturing . She integrates nanoscale materials into sustainable applications, aligning with circular economy principles. Scientific Awards & Memberships : Fellow of the International Academy of Wood Science Founding member of the Swiss Wood Innovation Network (S-WIN) Member of advisory boards for innovation parks, CSEM, and sustainability initiatives Active in organizations like the American Chemical Society and TAPPI Zimmermann leads Empa's strategic focus on nanoscale manufacturing and materials for health applications. She previously established Empa's Cellulose Nanocomposites research group and contributes to biomedical imaging technologies and sustainable supply chains.

Alexander SidorenkoView profile

Professor

• Polymer Chemistry
• Biomaterials
• Smart Materials
• +3 more

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.