Valérie Marchi is a CNRS Research Director at the University of Rennes 1's Institut des Sciences Chimiques de Rennes (ISCR). Her research focuses on nanoparticle synthesis, self-assembly, and their applications in bio-imaging, energy conversion, and biomaterials. She has contributed significantly to understanding directed self-assembly processes using organic templates and lipid membranes, as well as photoelectrochemical systems for biofuel cell development. Her work bridges nanotechnology and biophysics, with applications in materials science and biomedicine. Education: Engineer diploma and Master's in Physical Chemistry from ESPCI Paris (1994), PhD in Supramolecular Chemistry under Prof. Jean-Marie Lehn (Collège de France), postdoc at TU München (Germany) with Prof. Erich Sackmann. Research Themes: Semiconductor nanoparticle self-assembly for SERS substrates and biochips Biohybrid systems: enzyme-catalyzed photo-redox reactions using quantum rods Magnetic nanoparticle-based cytoskeleton manipulation Lipid membrane fusion mechanisms and biomimetic cell adhesion models Publications: Over 50 peer-reviewed articles in top journals like ACS Nano, Langmuir, and Nature Nanotechnology, with focus on nanoparticle-enabled bioimaging, energy systems, and biomaterials. Labs: ISCR-CNRS UMR 6226, leading a multidisciplinary team at the interface of chemistry, physics, and biology.
Alvise Benedetti is a Senior Researcher at Ca' Foscari University of Venice, affiliated with the Department of Molecular Sciences and Nanosystems and the European Center for Living Technology. His research focuses on advanced materials science, including nanomaterials synthesis, catalysis, green chemistry, and cultural heritage conservation. He holds expertise in physical chemistry of materials, surface characterization, and environmental impact assessment. Key projects include studies on supported metal catalysts, luminescent nanomaterials, and silica-based nanosystems for biomedical and industrial applications. He collaborates on EU-funded initiatives like the Indo-Italian Center of Excellence for Restoration and the Erasmus+ programs in Japan and Mongolia. Benedetti’s work bridges fundamental research with applied solutions, addressing challenges in sustainability, environmental monitoring, and heritage preservation. His teaching contributions include courses on bio/nanomaterials science, solid-state chemistry, and cultural heritage conservation. Benedetti’s research is supported by grants from MIUR, MAECI, and private industries, emphasizing interdisciplinary innovation and societal impact.
Axel Körner is a Senior Researcher at the Institute of Building Structures and Structural Design (ITKE) within the University of Stuttgart. He is associated with the Cluster of Excellence IntCDC and leads the research group 'Bioinspired Compliant Systems.' Research focus on computational design, bio-inspired structural systems, and adaptive façades Key projects include lightweight densification, reconfigurable tensegrity systems, and resource-aware architectural solutions His work bridges computational methods with biomimetic principles to develop deployable and responsive architectural systems. Projects like Flectofold and collaborations in the TRR 141 research unit emphasize plant-inspired kinematic solutions for architectural shading and structural adaptability. Axel contributes to teaching through the ITECH Master’s program , guiding design projects on self-formation, self-supporting assemblies, and environmental adaptive architecture. He is involved in developing demonstrators such as the Self-Choreographing Network (2018) and Bending-Active Segmented Shells (2016).
Professor Chunxia Zhao is a faculty member at the School of Chemical Engineering, University of Adelaide, and Deputy Director of the ARC Centre for Excellence for Enabling Eco-Efficient Beneficiation of Minerals (COEMinerals). Her research focuses on bioinspired engineering, biomimetic nanomaterials, and microfluidics for drug delivery and controlled release. Education: PhD from Zhejiang University. Her research has attracted over $55M in funding, including grants from ARC, NHMRC, MRFF, and CRC-P. She has led projects such as the ARC Centre of Excellence ($35M) and seven ARC/NHMRC projects as lead CI. Her work bridges nanotechnology and biomedical applications, with collaborations at Harvard, Brown, and other top institutions. Scientific awards and fellowships include: NHMRC Leadership Fellowship (2022-2026) ARC Future Fellowship (2015-2020) Australian Postdoctoral Fellowship (2011-2014) UQ Foundation Research Excellence Award (2016) She has filed eight patents (one licensed internationally) and serves as Editor-in-Chief and Editorial Board member for journals. PhD scholarships are available in areas like T cell immunotherapy and mRNA therapeutics.
Erik J. Anderson is a Professor of Mechanical Engineering at Grove City College. His research bridges engineering and biology, focusing on aquatic biomimetic robotics, undulatory/jet propulsion, flow sensing, and fluid dynamics. He teaches courses in applied fluid dynamics, biomechanics, mathematical methods, and senior design projects.
José L. Sánchez is a full Professor in the Department of Computer Systems at the University of Castilla-La Mancha (Spain), where he has held a permanent academic position since 1986. His research spans high-performance computing, network architecture, and GPU acceleration, with particular focus on energy-efficient interconnection networks for data centers and exascale systems. His research interests center on interconnection network optimization , including torus topologies, deadlock-free routing, and QoS provision in high-radix switches. He pioneers energy-efficient networking through on/off link strategies and develops frameworks like VEF traces for modeling MPI traffic in large-scale simulations. His work bridges theoretical network design with practical GPU-accelerated implementations for real-time computer vision and similarity search algorithms. Recent publications reveal a strong trend toward exascale-ready networking solutions , with 60% of his 2019-2022 work addressing energy efficiency in HPC topologies, congestion management in lossy networks, and photonic interconnect challenges. His methodology consistently combines formal network modeling with hardware-aware implementations, particularly leveraging GPU parallelism for bioinspired vision algorithms and metric search optimization. Professor Sánchez leads significant contributions to network simulation tooling, including the TopGen library for topology modeling and VEF3 framework extensions. His collaborative work spans multiple EU institutions, with frequent co-authorship patterns indicating strong ties to research groups specializing in network-on-chip systems and high-performance interconnects.
Dr. Joaquim Menacho Solà-Morales is an Associate Professor at the IQS School of Engineering , Ramon Llull University, where he actively contributes to the Department of Industrial Engineering . With a PhD in Chemical Engineering (2012) and a background in Industrial Mechanics (1994), he focuses on mathematical modeling, simulation, and optimization of industrial processes. Current research areas include Additive Manufacturing , Reverse Engineering , and Mechanical Characterization of Materials as part of the GEPI group. He has been involved in 8 significant research projects from 2002 to 2025, including 3DPC (3D-printed lightweight structures) and BEDALS (bioinspired engineering designs). His scientific production includes 28 publications, with notable works on viscoelastic material modeling, damping measurement methodologies, and chromatography system analysis. Collaborations extend across Spain and internationally, with affiliations to institutions like AGAUR and MINECO .
Valeria Criscuolo is a Researcher in the Neuroelectronic Interfaces department at RWTH Aachen University. She holds a PhD in Chemical Sciences from the University of Naples Federico II, earned in 2017, and has extensive experience in organic electronics and bio-inspired materials. Her career spans roles at the University of Washington, University of California, Santa Cruz, University of Rome Tor Vergata, and the Italian Institute of Technology. Bachelor’s Degree in Chemistry (2006–2010) Master’s Degree in Chemical Sciences (2010–2013) PhD in Chemical Sciences (2014–2017) Her research focuses on bio-inspired organic materials for optoelectronic devices, including OLEDs and wearable epidermal sensors. Recent work explores azobenzene-based semiconductors for neuromorphic platforms and 3D conductive structures for bioelectronic applications. She has contributed to understanding skin bioimpedances and developing light-driven morphing pillars for biointerfacing. Valeria’s publications highlight interdisciplinary trends merging chemistry, neuroscience, and materials science. Topics include melanin-inspired OLEDs, neurohybrid devices, and sustainable organic electronics. Her work bridges fundamental material synthesis with practical applications in wearable sensors and neuromorphic engineering.
Benjamin R McDonald is an Assistant Professor of Chemistry and Engineering at Brown University, where his research develops polymeric materials with programmable reactivity and assembly to address human health and sustainability challenges. He holds a BS from the University of North Carolina Asheville (2012) and a PhD from Northwestern University (2018), followed by postdoctoral training at MIT (2018-2021) under Prof. Tim Swager. His educational background includes: BS in Chemistry, University of North Carolina Asheville (2012) PhD in Chemistry, Northwestern University (2018) Postdoctoral Fellow, Massachusetts Institute of Technology (2018-2021) McDonald's research spans Polymer Chemistry, Materials Science, and Organic Synthesis, with core expertise in self-assembly, colloids, hierarchical materials, and soft materials. His group creates bioinspired macromolecular systems that mimic nature's multiscale organization, focusing on dynamic materials for applications ranging from structural coloration to chemical protection. The interdisciplinary approach integrates organic synthesis, emulsion science, and polymer physics to engineer responsive nanocomposites. His publication record reveals strong trends in photoredox catalysis, high-throughput discovery, and functional nanomaterials. Key themes include autonomously responsive membranes for defense applications, machine learning-enhanced chemiresistive sensors for food safety, and plasmonic nanoparticle assemblies for dynamic coloration. These works consistently bridge fundamental organic chemistry with practical materials engineering challenges. Notable recognitions include: Department of Chemistry Award for Outstanding Service (MIT) MLK Visiting Professors and Scholars Fellowship (MIT) Dreyfus Teaching Award (Northwestern) Ruth L. Kirschstein National Research Service Award (NRSA) Individual Predoctoral Fellowship (Northwestern) As head of the McDonald Laboratory, he mentors students across chemistry and engineering disciplines, providing training in organic synthesis, colloid science, and advanced characterization techniques. His collaborative research involves multiple grants supporting interdisciplinary work in bioinspired materials, though specific funding sources aren't detailed in the provided text. The McDonald Laboratory for Bioinspired Macromolecular Materials operates through three synergistic teams: the Polymer Topology group developing stimuli-responsive soft materials; the Nanomaterials (Nano/ZIP) team engineering macromolecular dispersants for nanocomposites; and the High Throughput team creating rapid mechanical characterization methods. This structure enables systematic exploration from molecular design to functional material implementation.
Dr. Changmin Shi is an Assistant Professor at Syracuse University with affiliations to the Syracuse Center of Excellence in Environmental and Energy Systems and the BioInspired Institute . His research bridges materials science, advanced manufacturing, and AI-driven methodologies to address challenges in energy storage, thermal management, and environmental sustainability. Education: Postdoc., Brown University (2025) Ph.D., University of Maryland, College Park (2023) M.S., Columbia University (2019) B.E., University of Science and Technology Beijing (2017) Research Interests focus on battery materials and manufacturing , passive thermal management , AI-driven prediction , and micro/nano fabrication . His group develops novel materials and recycling strategies for next-generation batteries while exploring passive systems for water harvesting and temperature regulation. Recent publications highlight advancements in solid-state battery electrolytes , dendrite suppression , and passive cooling architectures . His work combines machine learning with materials design to optimize performance across energy and environmental domains. Honors and Awards include Nominated Sigma Xi Full Member (2025) Inventor of the Year (2024) Nano Research Energy Young Star Researcher Gold Award (2023) Chinese Government Award for Outstanding Self-Financed Students Abroad (2023) Future Faculty Program Fellow (2022) Contact: cshi21@syr.edu
Chunying Li serves as an Assistant Professor in the Department of Electronic and Electrical Engineering at the College of Engineering, Southern University of Science and Technology (SUSTech). Recognized as a 2024 Shenzhen Pengcheng Peacock Program Distinguished Talent and Ocean Power Young Scientist nominee, her research pioneers spherical underwater robotics and multi-agent systems for complex marine environments. Her educational foundation includes: Ph.D. in Intelligent Mechanical Systems Engineering from Kagawa University, Japan (2021-2023) M.S. in Control Engineering from Tianjin University of Technology, China (2017-2020) Dr. Li's research integrates biomimetic principles with advanced engineering to solve underwater navigation challenges. Her work on multi-sensor fusion enables robust environmental perception, while adaptive control algorithms allow spherical robots to operate in turbulent conditions. Key applications include ocean monitoring, resource exploration, and collaborative multi-robot missions where traditional systems fail. Recent publications (2020-2024) reveal a strong focus on performance optimization and biomimetic sensing , with 7 of 11 representative papers appearing in Q1 journals like Information Fusion (IF=17.564). A notable trend is the development of artificial lateral line systems inspired by fish, significantly improving obstacle recognition in murky waters. Her accolades include: 2024 Young Scientists Nomination for Ocean Power 2024 Shenzhen Pengcheng Peacock Program Distinguished Talent 2023 Chinese Society of Automation Natural Science Award (Second Prize) 2022 CSC National High-Level University Scholarship Dr. Li leads the Shenzhen Outstanding Science and Technology Innovation Talent Program while contributing to international projects: Shenzhen Grants: Pengcheng Peacock Program (Principal Investigator) International Collaboration: Japan SPS KAKENHI Program (Key Researcher) Regional Projects: Tianjin Science and Technology Innovation Cooperation Program Her laboratory develops spherical underwater robot platforms featuring hybrid thrusters and multi-sensor arrays, emphasizing father-son robot coordination and jellyfish-inspired swarm behaviors. Through IEEE ICMA conference leadership roles (Finance Chair 2025, Publication Co-Chair 2024), she actively shapes robotics research standards in Asia-Pacific.
Professor Richard Johnston is a distinguished academic at Swansea University's Materials Research Centre, where he serves as Professor in the School of Engineering and Applied Sciences within the Faculty of Science and Engineering. He leads the X-ray Imaging group at Swansea and chairs the Executive Group of the Swansea University Research Forum (SURF). As Co-Director of the Materials Academy and a member of the Materials Institute's Minerals and Mining Education Committee, Professor Johnston plays a pivotal role in advancing materials science research and education at Swansea University. Professor Johnston's research focuses on the characterization of structures using X-ray Microtomography, with particular emphasis on biomimicry and bioinspiration. His work spans diverse materials from plant and biological specimens to concentrated superalloys. He investigates aerospace materials, including abrasive coatings, ceramic matrix composites, and nickel superalloys, while also conducting corrosion studies of zinc alloys and steel. His group applies artificial intelligence to manufacturing, process optimization, metals creep, and sports performance, demonstrating a truly interdisciplinary approach. An analysis of Professor Johnston's recent publications reveals a strong focus on advanced imaging techniques, particularly X-ray microtomography, applied across diverse fields from aerospace engineering to biology. His work shows consistent themes of biomimicry, material characterization, and the application of advanced imaging to solve complex engineering problems. The interdisciplinary nature of his research is evident in collaborations spanning glaciology, tephrochronology, regenerative medicine, and Egyptology. Professor Johnston has secured research grants as PI or Co-I totaling over £20 million since 2014, including the £9 million Advanced Materials Imaging (AIM) center funded by EPSRC/WW. His commitment to public engagement is evident through his outreach program Materials: Live and his writings for Nature, Scientific American, The Guardian, and Huffington Post. Professor Johnston has received numerous honors including the 2013 British Science Association Media Fellow (based at Nature) and the 2015 Software Sustainability Foundation Fellow. He is the inventor of the #ResearchAsArt Awards and won an Early Career Researcher prize in the Research as Art 2013 competition at Swansea University. As an active supervisor, Professor Johnston mentors numerous PhD and EngD students across various materials science topics. His teaching portfolio includes modules on mechanical deformation, fracture and fatigue, design classifications, and public engagement with science. Professor Johnston leads the JohnstonLab at Swansea University, which is characterized by its passion for interdisciplinary and collaborative research. The lab's fundamental ethos emphasizes the excitement and energy that comes from working with researchers from very different fields. The lab has developed strong capabilities in X-ray computed tomography, leading to diverse collaborations across multiple scientific disciplines.
Evangelyn C. Alocilja is a Professor in the Department of Biosystems and Agricultural Engineering at Michigan State University's College of Engineering. She serves as the founding program director of the Nano-Biosensors Lab, a faculty fellow in entrepreneurship at the Eli Broad College of Business, and founder of the Global Alliance for Rapid Diagnostics (GARD). Her work focuses on developing affordable, rapid diagnostic technologies with applications across public health, homeland security, and food safety sectors. Dr. Alocilja's research interests center on nanostructured biosensors for the rapid diagnosis of infectious disease agents. Her work spans electrochemical and optical sensing platforms using antibodies, DNA fragments, and biomimetic receptors as biological sensing elements. Key application areas include tuberculosis detection, foodborne pathogen identification, water quality monitoring, and anti-counterfeiting technologies. Her lab has developed a 10-cent tuberculosis test that delivers results in 10-20 minutes with 95%-99% accuracy, demonstrating her commitment to creating solutions accessible in resource-limited settings. Her recent publications reveal a strong focus on PCR-less DNA biosensors, magnetic nanoparticle-based detection systems, and blockchain-integrated anti-counterfeiting technologies. These works demonstrate consistent innovation in simplifying diagnostic processes while maintaining accuracy, with particular attention to field-deployable solutions that can operate outside traditional laboratory settings. Dr. Alocilja's scientific achievements have been recognized through numerous awards: 2016 Undergraduate Research Faculty Mentor of the Year at Michigan State University Senior Member of the National Academy of Inventors (2024) Fellow of the American Association for the Advancement of Science (AAAS) Fellow of the American Society of Agricultural and Biological Engineers (ASABE) She actively mentors a diverse team of graduate students, undergraduate researchers, and visiting scholars in her Nano-Biosensors Lab. Her research has attracted significant grant funding, including a $769,000 USDA National Institute of Food and Agriculture grant for developing biosensors for food safety in poultry. Through the Global Alliance for Rapid Diagnostics, she has created an international network focused on improving global health through accessible diagnostic technologies. Dr. Alocilja's lab specializes in the synthesis and application of various nanomaterials including gold nanoparticles, magnetic nanoparticles, electrically active nanoparticles, and polyaniline nanowires for biosensing and antimicrobial applications. Her team's work bridges engineering, biology, and public health to create practical solutions for real-world diagnostic challenges.
Eugenia Kharlampieva serves as a Professor and Principal Investigator of the Kharlampieva Research Group at the University of Alabama at Birmingham (UAB) . Her research focuses on advanced polymer-based materials for biomedical and environmental applications. Research Interests: Design of stimuli-responsive hydrogels and polymer vesicles for targeted drug delivery Development of antioxidant encapsulation strategies to enhance islet transplantation outcomes Creation of shaped polymer particles with pH-temperature dual responsiveness for controlled release systems Engineering multilayer micro/nanostructures using layer-by-layer assembly techniques Application of neutron reflectometry and AFM for polymer structure analysis Recent Publications demonstrate expertise in: 2025 : Intranasal glioma therapy using PDGFRA-immunopolymersomes , cyclophosphamide-induced diabetes models for autoimmune rejection studies 2024 : Shape-controlled hydrogel microcubes , pH-responsive poly(methacrylic acid) systems , and antibody delivery via polymer conjugation 2023 : CTLA-4-Ig encapsulation for immune modulation, 89Zr-radiolabeled polymersomes for PET imaging
Young Jo Kim is an Associate Professor in the Department of Chemical Engineering & Bioengineering at the University of New Hampshire's College of Engineering and Physical Sciences. His research bridges materials science, electrochemistry, and biomedical applications, focusing on melanin-based biomaterials and their multifunctional uses. Education : Ph.D. in Chemical Engineering from the University of Missouri-Columbia; B.S. from Sogang University. Kim's research centers on biomaterials and biopolymeric materials , particularly melanin derivatives for biomedical and electrochemical applications. Key areas include antibacterial agents , energy storage systems , and surface science for targeted therapies and environmental remediation. Recent publications highlight trends in bioinspired materials for neural engineering , antimicrobial therapies , and electrochemical energy storage . His work explores melanin's role in lithium purification, wound healing, and neuron differentiation, emphasizing biocompatibility and sustainability .
