Dr. Chishu Homma is a faculty member at RWTH Aachen University , holding the Chair of Micro- and Nanosystems within the College of Electrical Engineering and Information Technology and affiliated with the Institute of Materials for Electrical Engineering . His research bridges nanotechnology, materials science, and biosensing. Current focus: Graphene-based sensory systems Expertise: Peptide-nanostructure interactions Key applications: VOC detection, biomimetic sensors Recent work demonstrates enantioselective odorant detection in humid conditions and de novo peptide design for catalytic nanoarchitectures. His publications highlight the integration of biological molecules with 2D materials for advanced sensing capabilities.
Patrycja Kielb is a Junior Professor at the University of Bonn , affiliated with the Clausius-Institut für Physikalische und Theoretische Chemie under the Mathematical and Natural Sciences Faculty . She is a member of the TRA Matter Steering Committee , focusing on interdisciplinary research in redox biocatalysis and biohybrid systems. Research Interests include: Electron transfer mechanisms in metalloenzymes Artificial copper/heme-containing biocatalysts O 2 -converting enzymes Surface-enhanced resonance Raman spectro-electrochemistry AI applications in biochemical spectroscopy Redox pathways in Tyr/Trp networks Publication Trends reveal expertise in spectro-electrochemical methods for analyzing redox proteins, enzyme engineering for environmental and energy applications, and computational modeling of vibrational frequency shifts. Recent work emphasizes nucleic acid assembly and metal-catalyzed oxygenation reactions. Awards & Affiliations : Argelander-Professor of TRA Matter Collaborator with the TRA Matter initiative Research at the intersection of chemistry, biology, and materials science
Dr. Debajit Saha is an Assistant Professor of Biomedical Engineering at Michigan State University , where he joined in 2019. He holds cross-affiliations with the Neuroscience Program and Cell & Molecular Biology Program . Education : Master's from Indian Institute of Technology Bombay, Bachelor's in Physics from Jadavpur University, India Research Interests include systems neuroscience, neural engineering, and nano-neuroscience. His work focuses on decoding neural rules of learning/decision-making in olfactory systems and developing 'Bioengineering of Olfactory Sensory Systems' (BOSS) laboratory projects using insect brains for medical/environmental biosensors. Selected Publications analyze neural dynamics for sensory detection, odor code flexibility, and biohybrid sensors for endometriosis/lung cancer. His NSF CAREER Award (2023) supports part-brain-part-engineered gas sensors. Lab Activities involve hijacking insect olfactory pathways for BCI techniques, developing honeybee/locust brain-based chemical sensors , and studying nanoparticle transport in olfactory pathways.
Yuan Wang is an Associate Professor in the Department of Animal Science at Michigan State University, affiliated with the Cell & Molecular Biology Program and Genetics & Genome Sciences Program. Their research focuses on dissecting mammalian genetic programs that govern germ cell development using pluripotent stem cells, mouse knockout models, and long-term in vitro culture of spermatogonial stem cells. Research Interests: Elucidating germ cell lineage specification from pluripotent states Analyzing spermatogonial self-renewal and differentiation mechanisms Investigating mitochondrial dynamics in reproductive biology Studying transcription factor networks in developmental processes Email: wangyu81@msu.edu
Mónica Acuautla Meneses is an Associate Professor in the Discrete Technology and Production Automation department at the Faculty of Science and Engineering, University of Groningen. Her research focuses on developing engineering systems that explore the potential of piezoelectric materials, with applications in mechatronic, aerospace, and biomedical devices. She leads a multidisciplinary research group that integrates material science and engineering for the design and fabrication of sensors, actuators, and piezoelectric energy harvesters. Education PhD in Micro and Nanoelectronics from Aix Marseille University (2014) MSc in Electrical Engineering - Bioelectronics from National Polytechnic Institute - Mexico (2010) BSc in Mechatronic Engineering from Instituto Politécnico Nacional - Mexico (2007) Research Interests Prof. Acuautla Meneses specializes in processing, tailoring, and characterizing piezoelectric materials including rigid ceramics, thin films, and polymers. Her research spans multiple domains including micro-nanofabrication, MEMS/NEMS technology, flexible electronics, and biomedical applications. She has developed expertise in ferroelectric materials, piezoelectricity, thin film technology, and nanoparticle applications, with particular focus on ZnO-based systems. Her work contributes to UN Sustainable Development Goals related to clean energy and technological innovation. Research Trends Recent publications demonstrate a strong focus on flexible piezoelectric composites, particularly P(VDF-TrFE)/ZnO systems for energy harvesting applications. Her research shows increasing emphasis on biocompatible materials and wearable technology, with significant contributions to hafnium dioxide-based ferroelectrics. The work spans fundamental material science to practical applications in sensors, actuators, and energy harvesting devices, reflecting a trajectory from basic research to implementation in real-world systems. Scientific Recognition TKI Top sector HTSM grant (2022) Research Leadership and Media Impact Prof. Acuautla Meneses has secured competitive research funding including the TKI Top sector HTSM grant. Her work has received significant media attention, with 14 press mentions including features on "Mónica creates a power plant under your feet" (2020) and "Slimme robots om kleinere chips te maken" (2024). She actively collaborates with researchers across disciplines and countries, as evidenced by her extensive publication record and academic presentations. Research Environment Her research is conducted within the Discrete Technology and Production Automation group at the University of Groningen, collaborating with experts in material science, electrical engineering, and nanotechnology. The research environment supports advanced micro-nanofabrication capabilities and interdisciplinary projects that bridge fundamental material science with practical applications in energy harvesting and sensing technologies.
Nathan Swami is a Professor in the Department of Electrical and Computer Engineering at the University of Virginia. His research focuses on biophysical microsystems, developing microfluidic devices for biosensing, disease modeling, and tissue regeneration. He leads the Biophysical Microsystems Group at the UVA Center for Advanced Biomanufacturing. B.S., Indian Institute of Technology, Banaras Hindu University (1991) M.S., University of British Columbia (1993) Ph.D., University of Southern California (1998) Post-Doc, Clinical MicroSensors Inc. (1999-2000) Principal Scientist, Motorola Labs (2000-2003) His research spans biomedical data sciences, millimeter-wave electronics, and bio-inspired systems. Current projects include: Subcellular phenotypic analysis for microbiota interactions Conformation-specific biomarker detection Microfluidic vesicle/cell isolation Organ-on-chip tissue engineering Impedance-based cytometry Biodegradable scaffold fabrication Recent publications emphasize dielectrophoresis, cellular mechanics, and electrochemical biosensing, with applications in mitochondrial analysis and pathogen inhibition. His lab develops systems for point-of-care diagnostics in resource-poor settings. Key grants include NIH funding for microbiota-based infection control, AFOSR projects on biomarker detection, and a Paul Manning Launchpad Award for microfluidic sorting systems. His work combines microelectronics with bioanalysis to advance personalized medicine and tissue regeneration.
Derek Lovley is a Research Professor in the Department of Microbiology at the University of Massachusetts Amherst . His work bridges microbiology, environmental science, and biotechnology through the study of anaerobic microorganisms and their electron transfer mechanisms. Research Focus Dr. Lovley's research investigates: Extracellular electron transfer: Mechanisms enabling microorganisms to exchange electrons with metals, electrodes, and other cells. Microbial fuel cells: Applications in sustainable energy and bioelectronics. Bioremediation: Using microbes to clean up contaminated groundwater. Corrosion microbiology: Understanding microbial contributions to metal degradation. Scientific Trends His recent publications emphasize protein nanowires, microbial electrochemistry, and corrosion mechanisms, with interdisciplinary applications in environmental science and bioelectronics. Laboratory & Collaborations As leader of the Lovley Lab Group, he drives genome-scale studies integrating genetic, biochemical, and computational modeling approaches, often collaborating with industry partners.
Dr. Alon Gorodetsky is an Associate Professor in the Department of Chemical and Biomolecular Engineering at the Samueli School of Engineering, University of California, Irvine. His research bridges biomolecular engineering, materials science, and bioelectronics with a specialized focus on cephalopod-inspired technologies for practical applications in camouflage, thermoregulation, and bioelectronics. Dr. Gorodetsky received his Ph.D. in Chemistry from the California Institute of Technology and dual undergraduate degrees in Materials Science and Engineering and Applied and Engineering Physics from Cornell University. His research program is organized around two major thrusts: Bioelectronic Applications: Leveraging cephalopod skin proteins like reflectin to program optical properties of mammalian cells and control cellular fate for regenerative medicine and engineered living materials Adaptive Materials: Developing squid skin-inspired thermoregulatory materials with applications in thermal camouflage systems and sustainable food packaging solutions Recent publications (2021-2025) reveal a strategic shift toward scalable manufacturing techniques and practical applications while maintaining strong fundamental science. His work spans optics, materials science, and biological engineering, with increasing emphasis on wearable technologies and sustainable materials that translate biological principles into engineering solutions. Dr. Gorodetsky leads the active Gorodetsky Group for Biomolecular Electronics, which has produced numerous publications in high-impact journals. His research has garnered significant media attention for its innovative approach to bioinspired engineering, with features discussing applications in military camouflage, sustainable packaging, and medical technologies. The research direction demonstrates strong interdisciplinary collaboration, bridging marine biology with cutting-edge materials engineering to solve practical problems in defense, healthcare, and sustainability sectors. His work on proton conduction in reflectin-based materials represents a unique contribution to the emerging field of biomolecular electronics.
Paolo Motto Ros is an Assistant Professor at the Department of Electronics and Telecommunications at Politecnico di Torino, with the MiNES (Micro&Nano Electronic Systems) group. He holds a Ph.D. in electronic engineering from Politecnico di Torino (2009), following an M.Sc. (2005). His career spans roles at Neuronica Laboratory (2009-2012), Istituto Italiano di Tecnologia (2012-2019), and since 2019 at Politecnico di Torino as Senior Post-Doctoral Researcher and Adjunct Professor. He is an IEEE member and has organized conferences like BioCAS, ICECS, and ISCAS satellite events. Currently, he supervises 6 PhD students in projects related to wireless power systems and biomedical devices. Education: M.Sc. and Ph.D. in Electronic Engineering (Politecnico di Torino, 2005/2009) Research Interests focus on: Event-driven digital integrated circuits and systems Low-power smart sensor networks Bio-inspired electronics for robotics and medicine Wireless power transfer for implants and wearables Human motion applications and agrifood electronics Publication Trends show expertise in biomedical device design, neural interfaces, wireless power systems, and bio-inspired wearables. He leads the NerveRepack EU-funded project (2023-2027) for neural exoprosthetics. His lab affiliations include the VLSILAB group, and he serves on editorial boards for Frontiers in Bioengineering and Biotechnology . No scientific awards are mentioned in the provided texts.
Professor Jeremy Crook is a leading Biomedical Engineering academic affiliated with the University of Wollongong (2022-present), University of Sydney (2021-present) as Arto Hardy Family Professor and Chair of Biomedical Innovation, and Director of the Arto Hardy Family Biomedical Innovation Hub at Chris O'Brien Lifehouse Hospital. His research integrates stem cells , biomaterials , 3D bioprinting , and bioelectronics for advanced tissue engineering and regenerative medicine. His scientific achievements include seminal work on muscarinic cholinergic receptors in schizophrenia pathophysiology, directly contributing to FDA approval of KarXT, the first antipsychotic drug targeting this mechanism. Current research focuses on electroceuticals for neural and cardiac tissue regeneration, with clinical applications in glioblastoma and spinal cord injury . 2019 Research Australia Health and Medical Research Frontiers Award NIH Fellows Award for Research Excellence (2001) International Society for Stem Cell Research Standards Task Force Jeremy collaborates with clinical researchers to develop electrical stimulation technologies for in-body tissue regeneration and cancer therapeutics, while mentoring PhD students in neural tissue engineering , organoid modeling , and biofabrication . His work has secured major grants from NHMRC and ARC , including Ideas Grants and Centres of Excellence funding.
Pawel Wagner is a Principal Fellow at the Intelligent Polymer Research Institute within the Australian Institute for Innovative Materials at the University of Wollongong. He has held academic positions at Shinshu University in Japan as a Specially Appointed Visiting Associate Professor, Massey University in New Zealand as a Senior Research Officer, and Silesian University of Technology in Poland as an Assistant Professor. Dr. Wagner earned his PhD, MSc, and MEng from Silesian University of Technology in Gliwice, Poland. His postdoctoral training included work at Massey University in Organic Chemistry and at Hasselt University in polymer chemistry. His research focuses on synthesis of organic and organometallic materials for energy harvesting and conversion. His work spans organic chemistry, organic chemical synthesis, physical organic chemistry, physical chemistry, and macromolecular and materials chemistry. Recent research has centered on conducting polymers, CO2 reduction catalysts, dye-sensitized systems, and energy conversion materials, with particular emphasis on electron transfer processes and molecular design for improved performance. Wagner's research output shows a strong trend toward developing materials for sustainable energy applications, with significant work in electrocatalysis, photoelectrochemistry, and conducting polymers. His publications demonstrate expertise in molecular design, electron transfer kinetics, and materials synthesis for energy applications. He serves the scientific community through journal reviewing for Biomacromolecules, New Journal of Chemistry, Synthetic Metals, and Journal of Organic Chemistry. Wagner actively supervises numerous PhD students working on projects related to energy materials, membranes, and electrocatalysts. His grant funding includes significant projects from the Australian Research Council and Australian Renewable Energy Agency, including 'Asymmetric Biomembranes for Blue Energy Harvesting' and 'Bio-Inspired Hydrogen Generation by Novel Bubble Free Electro-Catalytic Systems.'
Dr. Caiyun Wang is a Principal Research Fellow at the Intelligent Polymer Research Institute (IPRI), part of the Australian Institute for Innovative Materials (AIIM) at the University of Wollongong, Australia. She has held various academic positions at the university since 2008, progressing from Research Fellow to her current role as Principal Research Fellow. Her educational background includes: PhD in Materials Science from University of Wollongong (2000-2004) MSc in Materials Science from Nankai University, China (1991-1994) BSc in Materials Science from Shandong Normal University, China (1987-1991) Dr. Wang's research focuses on the design and synthesis of advanced materials for energy applications. Her work spans multiple areas including: Development of conducting polymers and 2D materials for wearable and implantable energy storage devices Nanostructured catalysts for electrochemical reduction of CO 2 Asymmetric membranes for osmotic power generation Understanding the structure-property relationships of materials and electrode-electrolyte interfaces Her research output shows a strong trend toward developing sustainable energy solutions, with particular emphasis on battery technologies, CO 2 conversion, and novel energy harvesting systems. Many of her recent publications focus on flexible and wearable energy devices, as well as biomedical applications of energy technologies. Dr. Wang has secured significant research funding, including: "Asymmetric Biomembranes for Blue Energy Harvesting" from the Australian Research Council (2024-2027) "Bioinspired Nanoionic Materials for Watt-scale Nano-Hydroelectric Generator" from the Australian Research Council (2023-2026) Multiple internal grants from the University of Wollongong She is actively involved in higher degree research supervision, currently mentoring four PhD students and having successfully supervised numerous PhD candidates to completion. Her research group at IPRI focuses on advanced materials for energy applications, with particular expertise in polymer-based energy systems.
Tim Gardner is an Associate Professor of Neuroengineering and holds the Robert & Leona DeArmond Chair at the University of Oregon's Knight Campus. He leads the Gardner Lab, focusing on neural circuit dynamics in songbirds and developing neural interfaces. His research integrates machine learning, electrophysiology, and advanced imaging to study vocal behavior and motor learning. Prior to academia, he contributed to Neuralink Corp's brain-machine interface development. Gardner earned a B.S. in Physics from Princeton University, a Ph.D. in Biology and Physics from Rockefeller University, and completed postdoctoral work at Rockefeller and MIT. Education: Bachelor’s in Physics, Princeton University Ph.D. in Biology and Physics, Rockefeller University Postdoctoral Fellowships: Rockefeller University and MIT Research interests span neuroengineering, vocal learning in songbirds, deep learning applications, and bioelectronic medicine. The lab pioneers techniques like direct laser writing for 3D electrodes and applies reinforcement learning to understand neural self-organization. Recent work includes TweetyBERT for automated birdsong analysis and neural interface materials like amorphous silicon carbide. Awards: Robert & Leona DeArmond Chair in Neuroengineering Advising & Grants: Supervises graduate students and postdocs in neuroengineering and bioengineering. Projects include nerve regeneration studies, microscale printing, and neural interface design. Collaborates with industry (e.g., Neuralink) and startups like Mattrix Technologies. Labs/Teams: The Gardner Lab is part of the Knight Campus, emphasizing interdisciplinary research. Current projects involve 3D printing for biomedical devices and bidirectional brain interfaces. Undergraduates and graduate students contribute to projects like nerve cuff development and computational modeling of vocal sequences.
Emilio Fernández Lavado is a doctoral researcher at the École Polytechnique Fédérale de Lausanne (EPFL), affiliated with the School of Engineering (STI) and the Department of Intelligent Biomechanics and Rehabilitation (LSBI). He is pursuing a PhD in Electrical Engineering through the Programme doctoral en génie électrique. His research focuses on bioengineering solutions for neuroprosthetics, wearable sensors, and biomaterials, with applications in rehabilitation and sensory systems. Key research areas include haptic perception systems, conductive hydrogels for implantable bioelectronics, and gait analysis technologies. His work bridges materials science, biomedical engineering, and robotics to enhance human-machine interfaces and assistive technologies. Emilio is part of the LSBI lab, collaborating on projects like the GaitSkin system and liquid metal-based sensor skins. His publications (2021–2024) emphasize interdisciplinary approaches to address challenges in prosthetics, wearable devices, and sensory substitution for amputees. No scientific awards have been listed for Emilio. As a doctoral student, he has not yet advised students, but his research contributions reflect active participation in academic and applied research initiatives at EPFL.
Prof. Anitha Ethirajan is a Full Professor and Head of the NSI research group at Hasselt University, Belgium. She leads interdisciplinary research in nanobiophysics and soft matter interfaces, focusing on nanomaterials development for biomedical applications. With a PhD from Ulm University, Germany, she has held postdoctoral positions at Max-Planck Institute and established her independent research group through an FWO fellowship. Her research explores nanomaterials synthesis, nano-bio interfaces, molecularly imprinted polymer sensors, and hybrid systems for drug delivery. Recent work emphasizes sustainable biopolymer composites and responsive nanocarriers. She coordinates the Master's program in Biomedical Sciences with a specialization in Bioelectronics and Nanotechnology. Prof. Ethirajan's publications demonstrate consistent focus on functional nanomaterials, with recent trends in: Stimuli-responsive drug delivery systems Biodegradable polymer composites Antimicrobial nanomaterials Advanced characterization techniques Sustainable material processing She mentors PhD students and leads laboratory teams developing innovative approaches to nanomaterial design and application.
