Lukas Hiendlmeier is a Researcher at the Technical University of Munich, affiliated with the Munich Institute of Biomedical Engineering (MIBE) and the Associate Professorship of Neuroelectronics led by Prof. Bernhard Wolfrum. He holds a Master of Science in Mechanical Engineering from TUM. His research focuses on advanced fabrication technologies such as 3D printing, laser micromachining, and polymer material science, with applications in neuroelectronics and biomedical devices. Hiendlmeier’s work emphasizes developing self-folding bioelectronic interfaces, flexible electrodes, and implantable neural devices for peripheral nerve interfacing. His contributions include innovations in 4D printing techniques, thermoformed materials, and origami-inspired electrode designs. He collaborates on projects involving cell manipulation, microfluidic lab-on-a-chip systems, and closed-loop neural stimulation systems. Publications span topics like self-folding bioelectronics, flexible sensor arrays, and nanorobotics, showcasing expertise in materials science and biomedical engineering. His research bridges fundamental science and translational applications, addressing challenges in neural prosthetics, wearable diagnostics, and tissue engineering. Hiendlmeier is actively involved in the neuroTUM initiative and contributes to interdisciplinary teams at TUM, focusing on advancing neurotechnology through innovative fabrication methods and biomaterials.
Prof. Zeynep Altintas is a Full Professor (W3) at the Faculty of Engineering, Kiel University, where she holds the Chair of Bioinspired Materials and Biosensors within the Institute of Materials Science since 2022. She leads cutting-edge research at the intersection of materials science, biosensing, and computational design of functional materials for biomedical applications. Her research focuses on developing novel biosensing platforms using in silico designed functional materials for medical diagnostics, environmental monitoring, and food safety analysis. She has pioneered approaches in epitope-mediated imprinting, nanoMIP biosensors, and lab-on-a-chip sensing technologies. Her work bridges computational modeling with experimental validation to create high-affinity synthetic receptors for disease biomarkers. Prof. Altintas has received numerous prestigious accolades including the Life Outstanding Investigator Award for Women (2022), The Aventis Life Sciences Bridge Award with 100,000 euros prize money (2021), and recognition on Stanford University's Top 2% Scientists List (2021 and 2022). These awards reflect her significant contributions to advancing biosensor technology and materials science. She serves in editorial roles for high-impact journals including Biosensors and Bioelectronics (Elsevier), Scientific Reports (Nature), and Micromachines (MDPI). Her research has been supported by competitive funding including a Marie Curie Individual Fellowship (2016-2018) and various British Council travel grants. She has organized international scientific events and served on multiple conference committees. Prof. Altintas leads the Biomaterials and Biosensors Working Group at Kiel University, which is actively engaged in projects related to biomagnetic sensing, materials for brain applications, and cooperative actuator systems for nanomechanics. Her research group collaborates internationally across Europe, Turkey, and the UK, addressing critical challenges in healthcare diagnostics through interdisciplinary approaches.
Prof. Frieder W. Scheller is affiliated with the Institute of Biochemistry and Biology at the University of Potsdam, Germany. His work centers on advanced biosensing technologies, particularly molecularly imprinted polymers (MIPs), bioelectronics, and biomimetic recognition systems. Research Interests: His primary fields include Bioanalysis, Bioelectronics, Biosensors, Molecularly Imprinted Polymers, Electrochemical Sensing, and Plastibodies. His research bridges chemistry, materials science, and biotechnology to develop synthetic alternatives to biological receptors for medical and environmental applications. The recent publications (2019–2024) highlight a strong trend in designing MIP-based nanofilms for protein and virus recognition, including applications in SARS-CoV-2 detection and enzyme monitoring. These studies focus on improving selectivity, stability, and reliability of electrochemical biosensors using innovative polymer architectures. Scientific Contributions: Developed Strep-tag imprinted polymer platforms for bio(electro)catalysis. Explored ACE2-mimicking MIPs for viral epitope recognition. Investigated challenges in MIP sensor reliability and non-specific binding. Advanced the concept of plastibodies for biomacromolecules, viruses, and cells. Collaborations and Advising: Prof. Scheller has collaborated with over 145 co-authors globally, indicating strong network engagement. While no formal students are listed in the provided text, his collaborative output suggests mentorship and team leadership roles in multidisciplinary research projects involving materials, electrochemistry, and biotechnology. Laboratories and Research Teams: His work is conducted within the Institute of Biochemistry and Biology at the University of Potsdam, likely involving a research group focused on bioanalytical chemistry and sensor development. The frequent co-authorship with researchers like Aysu Yarman and Xiaorong Zhang indicates an active, interdisciplinary team working on next-generation biosensing platforms.
Paschalis Gkoupidenis is an Associate Professor in the Department of Electrical and Computer Engineering at North Carolina State University (since August 2024) and a Group Leader at the Department of Molecular Electronics at the Max Planck Institute for Polymer Research. His research focuses on developing organic neuromorphic devices for neuro-inspired information processing, learning, sensing, and bio-interfacing. Research Interests Dr. Gkoupidenis specializes in hardware-based implementation of neuromorphic architectures, which offer efficient ways of data manipulation and processing, especially in data-intensive applications. His work explores how organic materials and devices can be used for neuro-inspired devices and bioelectronics, leveraging their attractive characteristics such as ability to operate in electrolytes, spatiotemporal response, analogue memory phenomena, tunability via chemical synthesis, low-cost fabrication processes, and biocompatibility. His research group investigates various concepts for inducing neuroplasticity, learning forms, and spatiotemporal information processing functions at a single-device level, as well as new paradigms of neuromorphic architectures at circuit level. These neuro-inspired functions are essential for trainable/adaptable circuits in energy-restricted environments and for local signal processing in bioelectronics. Scientific Contributions Development of organic neuromorphic devices for neuro-inspired information processing Research on synaptic plasticity functions in organic electrochemical transistors Exploration of neuromorphic device architectures with global connectivity through electrolyte gating Investigation of functional connectivity of organic neuromorphic devices by global voltage oscillations Advancement of organic neuromorphic devices for adaptive sensing and novel computing paradigms in bioelectronics Affiliations Associate Professor, Department of Electrical and Computer Engineering, North Carolina State University (since August 2024) Group Leader, Organic Neuromorphic Electronics, Max Planck Institute for Polymer Research (since 2017) Postdoctoral Researcher, Department of Bioelectronics, EMSE, France (2015-2017)
Professor Brigitte Voit leads the Macromolecular Chemistry division at the Leibniz Institute for Polymer Research Dresden (IPF) and holds the chair for 'Organic Chemistry of Polymers' in the Faculty of Mathematics and Natural Sciences / Faculty of Chemistry and Food Chemistry at Technische Universität Dresden. She is actively involved in interdisciplinary collaborations with the Center for Advancing Electronics Dresden (cfaed), Centre for Regenerative Therapies Dresden (CRTD), and the Dresden International Graduate School for Biomedicine and Bioengineering (DIGS-BB) through the DRESDEN-concept initiative. Additionally, she serves as chairwoman of the Materialforschungsverbund Dresden (MFD). Academic Affiliation: Technische Universität Dresden Research Focus: Synthesis of multifunctional polymers, dendritic polymers, bioactive materials, responsive hydrogels, radical ring-opening polymerization Research Trends: Her recent publications highlight advancements in bioinspired polymer systems, including polymersome membranes for synthetic cells, light-driven enzymatic control, hierarchical biomimetic structures, and tunable hydrogels. These works reflect her expertise in integrating polymer chemistry with biomedicine and sustainable materials. Interdisciplinary Roles: Involvement in cfaed, CRTD, DIGS-BB, and DRESDEN-concept Leadership: Former Scientific Director at IPF (2002-2022), current department head Publications demonstrate her group's focus on responsive and bioactive polymer architectures, with applications in drug delivery, bioelectronics, and sustainable materials.
Prof. Can Dincer is a Professor of Sensors and Wearables for Healthcare at the TUM School of Computation, Information and Technology, Technische Universität München (TUM). His research focuses on bioanalytical materials, wearable sensors, and AI-driven diagnostics for One-Health applications, integrating disposable sensor technology with data science. He holds a doctorate from the University of Freiburg (summa cum laude, 2016) and worked as a visiting scientist at Imperial College London before joining TUM in 2024. He is a member of the Munich Institute of Biomedical Engineering (MIBE). Key research interests include: Development of wearable biosensors for real-time health monitoring CRISPR-based diagnostics for nucleic acids and proteins AI integration for therapeutic drug monitoring in sepsis and other critical conditions Environmental health connections via point-of-need diagnostics Notable achievements include the 2021 Biosensors & Bioelectronics Best Paper Award and inclusion in Stanford's World's Top 2% Scientists since 2022. His work spans clinical applications, microfluidic platforms, and nanotechnology-based solutions for healthcare challenges. Publications highlight innovations like optogenetic bioassays (Science Advances, 2024), CRISPR-powered multiplexed biosensors, and wearable systems for continuous biomarker monitoring. His research bridges material science, electrical engineering, and biomedicine to create practical diagnostic tools. Prof. Dincer collaborates across disciplines, focusing on translating lab innovations into clinical and commercial applications through advanced sensor technologies.
Matthias Meier is a Full Professor at the Institute of Biochemistry, University of Leipzig, and Principal Investigator at Helmholtz Pioneer Campus, Helmholtz Zentrum München. His research focuses on advancing microfluidic organ-on-chip technology for single-cell and whole-organ disease modeling. Education: PhD in Biophysics (University of Basel, 2006) Research Interests: Dr. Meier's work bridges bioengineering and metabolic disorders, using organ-on-chip platforms to study stem cell differentiation, pancreatic/adipose tissue interactions, and dynamic microenvironmental signals. His lab integrates microfluidics with hiPSC-derived organoids for obesity and diabetes research. Publication Trends: Recent studies emphasize organ-on-chip systems, single-cell analysis , and stem cell engineering , with applications in cardiovascular disease modeling, spatial transcriptomics, and bioelectronic monitoring. Scientific Awards: Feodor-Lynen Postdoctoral Fellowship (2008) Emmy-Noether Fellowship (2012-2018) ERC Consolidator Grant (2017) Advising & Grants: He has led independent research groups with major grants, focusing on energy imbalance mechanisms and patient-specific organoid models for metabolic disease therapies. Labs & Teams: The Matthias Meier Lab develops microfluidic platforms to control chemical, architectural, and mechanical cues for hiPSC differentiation, emphasizing spatial protein profiling and organoid assembly.
Marcel Mayor is a Full Professor of Chemistry at the University of Basel and Research Unit Chair at the Karlsruhe Institute of Technology's Institute of Nanotechnology. He leads the Synthetic Chemistry research unit, focusing on designing functional molecules for nanotechnology applications. His interdisciplinary work bridges synthetic chemistry, molecular electronics, and nanomaterials science. Mayor studied at the University of Bern (Diploma 1991, PhD 1995) and conducted postdoctoral research with Jean-Marie Lehn at Université Louis Pasteur. He became Maître de Conférence at Collège de France (1997-1998) before joining Forschungszentrum Karlsruhe (now KIT) in 1998. His research explores: Molecular electronics and single-molecule devices Carbon-based nanostructures and functional molecules Supramolecular systems for nanotechnology applications Advanced materials for optoelectronics and sensing Recent publications demonstrate innovations in molecular heat engines, single-molecule junctions, bio-conjugation chemistry, and stimuli-responsive materials. Research consistently integrates synthesis, nanofabrication, and physical characterization. Awards: Erwin Schrödinger Award (2004) for Molecules for future Nanoelectronics He directs laboratories at both the University of Basel and KIT, leading interdisciplinary teams in synthetic chemistry, molecular device fabrication, and nanoscale characterization. Current work focuses on quantum interference in molecular wires and chiral nanomaterials.
Dr. Can Dincer is the head of the "Disposable Microsystems" junior research group at the FIT Freiburg Center for Interactive Materials and Bio-Inspired Technologies and the Institute of Microsystems Engineering (IMTEK) at the University of Freiburg. He earned his doctorate in Microsystems Engineering from the University of Freiburg in 2016 with a thesis on electrochemical microfluidic biosensors for point-of-care testing, earning the Gips-Schüle Young Researchers Award (2nd place, 2017). From 2017–2019, he worked as a visiting scientist at Imperial College London, focusing on paper-based microfluidic systems. He is an Associate Editor of Biosensors and Bioelectronics since 2019 and has received multiple accolades, including the 2018 Adolf Martens Prize, the 2020 iba Heiligenstadt Best Paper Award, and the 2021 Biosensors & Bioelectronics Best Paper Award. His research emphasizes microfluidic diagnostics, disposable sensors, and CRISPR-powered biosensing technologies. Research Interests: Microfluidic diagnostics and lab-on-a-chip systems Paper-based µPADs for point-of-care testing CRISPR-integrated biosensors for nucleic acid detection Personalized medicine via miRNA profiling Respiratory gas analysis microsystems Awards: Highlighted in ACS Sensors' 'Rising Stars in Sensing' (2020), elected to the International Advisory Board of Advanced Sensor Research (2022), and recognized for pioneering work in electrochemical biosensor optimization. Grants/Labs: Leads the Disposable Microsystems Group, collaborating on projects like BioEPIC and SPEEDER, focusing on biofunctional materials and nerve regeneration technologies.
Prof. Vivek Pachauri holds the Chair of Materials for Electrical Engineering I at RWTH Aachen University, leading research at the Institute of Materials for Electrical Engineering. His work bridges materials science and bioelectronics, focusing on graphene-based transducers, silicon nanowires, and metal-organic frameworks (MOFs) for biosensing applications. University: RWTH Aachen University (Germany) Department: Materials for Electrical Engineering Academic Rank: Professor Email: pachauri@iwe1.rwth-aachen.de His research spans nanoscale sensor development , microfluidic platforms , and bioelectronic systems , with applications in disease detection, environmental monitoring, and cellular analysis. Recent work highlights programmable molecular amplification and multi-parametric point-of-care diagnostics. Key trends in his publications include: Advanced 2D materials (graphene oxide, MoS 2 ) Metal-organic frameworks for fluorescence sensing Microfluidic integration of biosensors Plasmonic and Fano resonance-based detection Low-cost cellular assays using organic electronics
Mariana Medina Sánchez is a prominent researcher at the Leibniz Institute for Solid State and Materials Research Dresden, specifically affiliated with the Institute for Integrative Nanosciences. Her work bridges nanotechnology and biomedical applications, with a strong emphasis on developing functional microrobotic systems for clinical use. Her research focuses on medical microrobots , microfluidics , targeted drug delivery , biosensing , magnetic actuation , and assisted fertilization . These interests reflect a deep integration of materials science, robotics, and reproductive medicine, aiming to create minimally invasive, intelligent therapeutic platforms. The recent articles highlight a consistent trend toward smart, biocompatible microrobots capable of onboard sensing , remote actuation , and controlled degradation . The research spans applications in cancer therapy, reproductive medicine, gastrointestinal delivery, and single-cell analysis, demonstrating a broad yet cohesive vision in biomedical nanorobotics. While no specific scientific awards are listed in the provided text, her frequent publications in high-impact journals such as Nature Nanotechnology , ACS Nano , and Advanced Intelligent Systems suggest significant recognition in the field. Mariana Medina Sánchez actively collaborates with leading scientists across institutions, including Oliver G. Schmidt, Alberto Escarpa, and Carsten Werner. Her work likely involves interdisciplinary teams and may be supported by competitive research grants, although specific funding sources are not mentioned. She has not listed any formal advisees, but her senior authorship indicates a leadership role in mentoring junior researchers. Her research is conducted within the Institute for Integrative Nanosciences at IFW Dresden, a hub for advanced nanofabrication and functional materials, where she likely leads or co-leads a research group focused on biomedical microsystems and nanorobotics.
Prof. Dr. Martin Bastmeyer is a Full Professor and Head of the Department for Cell- and Neurobiology at the Karlsruhe Institute of Technology (KIT). He holds leadership roles including former Dean of the Faculty for Chemistry and Biosciences at KIT and spokesperson for the Helmholtz Society's BioInterfaces Programme. His research focuses on cell-neurobiology, mechanobiology, and advanced biomaterials, particularly 3D microscaffolds for cell studies. Education: Diploma in Biology (1984), PhD in Cell Biology (1989), Habilitation in Cell- and Neurobiology (1996) Research interests include cell-matrix interactions, stem cell engineering, and biophotonics applications. He pioneered studies on neural adhesion molecules and 3D-printed biomaterials for tissue engineering. Key achievements include developing mechano-responsive hydrogels and elucidating molecular mechanisms in cardiac maturation. Awards include the Erwin-Schrödinger-Prize (2016) for interdisciplinary research. His work bridges material science and biology through innovative microfabrication techniques and functional cell niches. Awards: BRIDGE Fellowship (2018), Heisenberg Fellowship (1998–2001) Prof. Bastmeyer leads interdisciplinary teams in KIT's BioInterfaces and Karlsruhe School of Optics & Photonics (KSOP), advancing biofunctional materials and cell-mechanics research. His labs utilize cutting-edge imaging and microengineering to study cellular responses to mechanical cues and environmental stimuli.
Prof. Dr. Holger Dau is a faculty member at the Institute for Experimental Physics , Freie Universität Berlin , where he leads research in biophysics and photosynthesis. He is a core member of the UniCat (Unifying Concepts in Catalysis) research center, focusing on artificial photosynthesis and solar fuel production. University: Freie Universität Berlin Department: Institute for Experimental Physics Research Affiliation: UniCat His research centers on metalloproteins , X-ray spectroscopy (XAS, EXAFS), and catalysis at metal sites, with a special emphasis on the water-oxidizing complex in photosystem II. He combines experimental techniques with computer simulations to understand and mimic natural photosynthesis for sustainable energy applications. The recent publications highlight a strong trend in photosynthesis research , particularly in structural and mechanistic studies of the oxygen-evolving complex, biomimetic catalysts for water oxidation, and the application of advanced spectroscopic and computational methods. His work bridges biophysics , inorganic chemistry , and energy science , aiming to develop efficient systems for solar fuel generation. While no specific scientific awards are mentioned in the text, his work has been published in top-tier journals such as Nature , Angewandte Chemie , and PNAS , and includes patents related to hydrogen evolution catalysts, indicating significant research impact and translational potential. Prof. Dau collaborates extensively with researchers across disciplines, including Peter Hildebrandt , Athina Zouni , and Matthias Driess . Although student advising is not explicitly mentioned, his leadership of a research group suggests mentorship activities. His laboratory likely focuses on biophysical characterization of photosynthetic systems and the development of artificial photosynthetic devices .
Robert S. Langer is an Institute Professor at the Massachusetts Institute of Technology, holding positions in both the Department of Chemical Engineering and the Department of Biological Engineering. He is also a faculty member of the Harvard-MIT Program in Health Sciences and Technology and the Koch Institute for Integrative Cancer Research. With over 1,400 granted or pending patents and more than 1,600 scientific papers, Langer is one of the world's most highly cited researchers with an h-index of 331 and over 450,000 citations. Dr. Langer's educational background includes: Bachelor's degree in Chemical Engineering from Cornell University Sc.D. in Chemical Engineering from Massachusetts Institute of Technology (1974) Postdoctoral fellowship at Children's Hospital Boston and Harvard Medical School under Judah Folkman (1974-1977) Langer is widely regarded as a pioneer in drug delivery systems and tissue engineering . His research focuses on developing innovative biomaterials for controlled drug release, creating engineered blood vessels and vascularized engineered muscle tissue, and advancing regenerative medicine. His work has led to the development of polymer systems that control the release of inhibitors for cancer treatment, microneedle tattoo patches for medical information storage, and implantable devices for diabetes treatment. Langer's laboratory at MIT is the largest biomedical engineering lab in the world, maintaining over $10 million in annual grants and over 100 researchers. Analysis of Langer's recent publications reveals a continued focus on advanced drug delivery systems, nanotechnology applications in medicine, and tissue engineering innovations. His work spans from fundamental biomaterials development to clinical applications, with particular emphasis on improving biocompatibility, developing targeted delivery systems for cancer and other diseases, and creating responsive materials that adapt to physiological conditions. Recent work shows significant contributions to mRNA delivery systems, which have become increasingly relevant for vaccine development. Langer has received numerous prestigious awards, including: National Medal of Science (2006) National Medal of Technology and Innovation (2011) Millennium Technology Prize (2008) Queen Elizabeth Prize for Engineering (2015) Kavli Prize in Nanoscience (2024) Double Helix Medal (2025) And over 220 other major awards throughout his career Dr. Langer has advised numerous students who have gone on to become leaders in biomedical engineering and related fields. His laboratory has been instrumental in training the next generation of researchers and entrepreneurs. Beyond academic mentorship, Langer has been involved in founding more than 40 biotechnology companies, including Moderna, demonstrating his commitment to translating research into real-world applications. His lab maintains substantial grant funding, with over $10 million in annual grants supporting innovative research in drug delivery and tissue engineering. The Langer Lab at MIT is the largest biomedical engineering laboratory in the world, with over 100 researchers working on cutting-edge projects in drug delivery, tissue engineering, and nanotechnology. The lab has developed numerous technologies that have been commercialized through startup companies, and continues to push the boundaries of what's possible in biomedical engineering. Langer's collaborative approach has led to partnerships with researchers across MIT, Harvard, and other institutions worldwide, creating a vibrant ecosystem for innovation in biotechnology.
Prof. Dr. Martin Stutzmann is the Head of Group at the Walter Schottky Institute at the Technical University of Munich . His research focuses on advanced semiconductor technologies, particularly in Photonics & Optoelectronics , Quantum Technologies , and Energy Materials . His group specializes in the design and characterization of functional semiconductors for renewable energy applications, with a strong emphasis on mid-infrared (mid-IR) and terahertz (THz) photonics . They employ techniques like atomic layer deposition , molecular beam epitaxy , and physical vapor deposition to engineer materials with precise electronic and optical properties. Their recent publications highlight work on GaN nanowires , amorphous nitride semiconductors , and surface-sensitive electrochemical platforms , with applications in photocatalysis , optoelectronic interfaces , and thermal energy conversion . They maintain collaborations with other institutions and laboratories, focusing on interdisciplinary research that bridges materials science , quantum optics , and renewable energy technologies .
