Vincent Noireaux is a Professor at the School of Physics and Astronomy at the University of Minnesota, Twin Cities. His research bridges biological physics and synthetic biology to develop cell-free transcription-translation systems and synthetic cell platforms . Current projects funded by the National Science Foundation and Department of Energy Collaborates with institutions in Israel, Romania, and Washington Expertise: Synthetic biology , cell-free systems , genetic circuits Research Focus : Develops quantitative models for in vitro gene expression and constructs synthetic cells using self-assembling systems . Key areas include biophysics , bioengineering , and biomanufacturing . Email: noireaux@umn.edu
Elias Puchner is an Associate Professor in the School of Physics and Astronomy at the University of Minnesota. His research focuses on the intersection of physics and biology, specifically studying cellular signaling processes using advanced microscopy techniques. He is based in the Physics and Nanotechnology Building at the University of Minnesota's Minneapolis campus. Dr. Puchner's research investigates how cells sense environmental signals such as physical forces or small molecules, and how these signals are processed by intracellular signaling networks. His work spans multiple length scales - from mesoscopic structures like protein complexes and organelles to nanoscopic protein conformational changes. He employs quantitative super-resolution microscopy to resolve cellular structures below the optical diffraction limit and uses atomic-force microscopy based single molecule force spectroscopy to study protein dynamics. His recent publications demonstrate expertise in single-molecule and super-resolution microscopy techniques applied to diverse biological questions including protein dynamics, autophagy initiation, chromatin structure, and lipid metabolism. His work consistently develops novel imaging approaches that push the boundaries of what can be visualized in living cells. Dr. Puchner has secured significant research funding including an active NIH grant studying lipid droplets and subcellular metabolism (2023-2027) as Co-Investigator, and a previously completed NIH grant developing diffusion-contrast super-resolution microscopy (2018-2021) as Principal Investigator. He actively mentors students through his laboratory research and participates in the National Science Foundation's Research Experience for Undergraduates (REU) and Research Experience for Teachers (RET) programs, demonstrating commitment to scientific education and outreach. The Puchner Lab (http://puchnerlab.umn.edu) combines synthetic biology, genetic engineering, and molecular biology with their specialty in quantitative single-molecule super-resolution microscopy to investigate the biophysical principles of cellular signaling networks, connecting single molecule behavior to whole cell responses.
Prof. Thomas Hellerer is a faculty member specializing in applied photonics and advanced microscopy techniques. His laboratory develops cutting-edge optical systems for biomedical research, including fluorescence lifetime imaging and intracellular nanoparticle tracking. Key research projects: SEMPA track (2022-2024): Time-resolved microscopy for tracking nucleic acid delivery via lipid nanoparticles LiteScope (2019-2022): Compact multimodal system combining fluorescence lifetime, elastography, and multiphoton imaging KISS STED (2017-2019): Super-resolution microscopy with intrinsic beam overlay technology Applied Photonics (2021-2024): Broad photonics applications research He leads the Multiphoton Imaging Laboratory at Physics Lab II, developing novel imaging methodologies for life sciences.
Dr. Paul Guichard is an Associate Professor at the University of Geneva's Department of Molecular and Cellular Biology. His research focuses on deciphering the structural mechanisms governing centriole assembly through multidisciplinary approaches including cryo-electron tomography, expansion microscopy, and in vitro reconstitution assays. Current research projects: Centriole structure/function, Expansion Microscopy developments, Ciliopathy & Eye diseases, Immune Synapse Architecture, Molecular conoid studies, Plankton ultrastructural diversity The lab's recent work (2020-2024) has revealed key insights into centriole cohesion, microtubule organization, and protein complexes critical for ciliogenesis. Their structural analyses of centriole components across species (Paramecium, Chlamydomonas, Trichonympha) highlight evolutionary conservation. Key techniques: Cryo-ET, U-ExM, in vitro assays, 3D reconstruction Funding: Fondation privée des HUG (Plasmodium conoid studies)
Jonas Ries is a Professor at the University of Vienna, affiliated with the Department of Structural Biology and Computational Biology. His research focuses on super-resolution microscopy, cryo-electron microscopy, and structural analysis of cellular components. Department: Structural Biology and Computational Biology Specialization: Nuclear pore complex architecture, MINFLUX nanoscopy, fluorescent labeling. His recent work includes 2025 projects on mitochondrial fission during apoptosis via SMLM and MINFLUX, and developing a cost-effective MINFLUX microscope. He collaborates internationally, with a focus on nuclear pore complexes and artificial intelligence applications in microscopy. 2024 contributions highlight advancements in 3D MINFLUX excitation, dynamic structural biology, and synaptonemal complex analysis in C. elegans. His projects often involve computational modeling and high-throughput imaging. Research Trends Recent publications emphasize super-resolution techniques (MINFLUX, SMLM), PSF inverse modeling for microscope calibration, and nuclear pore complex dynamics. Subfields include apoptosis mechanisms, clathrin coat bending, and AI-driven image analysis. Academic Engagement He participated in the Dies Academicus event at the University of Vienna in 2024, indicating active involvement in academic community activities.
Ming Xiao serves as a Professor in Drexel University's School of Biomedical Engineering, Science and Health Systems, where he leads pioneering research in genomic technology development with significant applications in molecular diagnostics, cell/gene therapies, and cancer screening. His work has established critical methodologies for understanding human genome structures and variations through innovative single-molecule approaches. His academic foundation includes: PhD in Biophysics from Baylor University (1997) BS in Biomedical Engineering from Huazhong University of Science and Technology (1988) Dr. Xiao's research program integrates micro/nanotechnology , single-molecule detection , and CRISPR-based systems to advance genomic analysis. His laboratory specializes in developing optical mapping techniques and nanofluidic platforms that enable high-resolution genome characterization, with particular emphasis on telomere biology, structural variation detection, and haplotype determination. These technologies bridge engineering principles with clinical applications in cancer diagnostics and precision medicine. Analysis of his publication history reveals a consistent trajectory from foundational single-molecule methods (2007-2012) toward sophisticated CRISPR-integrated genomic tools (2015-2024). Recent work demonstrates increasing focus on clinical translation, particularly in cancer genomics through telomere analysis and targeted resequencing strategies. His research consistently appears in high-impact journals including Nature Biotechnology , Nucleic Acids Research , and Genes , reflecting substantial contributions to both methodological innovation and biological discovery.
Edward A. Lemke is a Professor at Johannes Gutenberg University Mainz (JGU), jointly appointed in the Departments of Biology and Chemistry. He serves as Adjunct Director at the Institute of Molecular Biology (IMB) and Visiting Group Leader at EMBL Heidelberg, focusing on intrinsically disordered proteins (IDPs) and their roles in neurodegenerative diseases and essential biological processes like nucleocytoplasmic transport. Education : PhD in Membrane Biophysics (Max Planck Institute/University of Göttingen, 2005), MSc (University of Oklahoma, 2001), Diploma (Technical University of Berlin, 2001) His research pioneers interdisciplinary methods combining synthetic biology, chemical biology, and advanced microscopy to study dynamic protein systems. He has developed novel fluorescence and labeling tools to overcome limitations in analyzing the "dark proteome" of IDPs. Recent work highlights RNA pseudouridylation in designer organelles, SAXS rulers for IDP analysis, and visualizing nuclear transport machinery. His lab's innovations span genetic code expansion, microfluidics, and super-resolution imaging. Scientific Awards : EMBO Member (2022), ERC Advanced Grant (2020), Gutenberg Research Fellow (2018), FEBS Anniversary Award (2017), and multiple competitive grants/awards since 2001 As co-founder of Araxa/Veraxa Biosciences and spokesperson for DFG Priority Program 2191, Lemke bridges academic research and biotechnology commercialization. His lab continues advancing tools for studying complex biological systems.
Prof. Michael Habeck is a faculty member at the University of Göttingen, specializing in structural biology and computational methods. His research focuses on cryo-EM data analysis, molecular modeling, and integrating machine learning for biomedical applications. Advisor to 10+ PhD theses (2016–2023) Expertise in cryo-EM structure determination and validation Develops probabilistic models for dynamic proteins and change-point detection algorithms His work bridges structural biology with computational innovation, enabling high-resolution analysis of macromolecular complexes and advancing diagnostic tools via machine learning. Recent projects include CRISPR-edited cardiomyocyte models and super-resolution microscopy techniques. Key research areas span: Structural Biology: Cryo-EM, protein conformational changes Computational Methods: Bayesian modeling, tomography algorithms Machine Learning: Cardiac disease prediction, genomic data analysis
Yasuko Antoku is a Researcher at the Biotech Research & Innovation Centre (BRIC) within the Faculty of Health and Medical Sciences at the University of Copenhagen. Located at Ole Maaløes Vej 5 in Copenhagen, she has maintained an active research career from 2008 through 2024, contributing to numerous high-impact publications across multiple disciplines. Her research interests span cancer biology, nanotechnology, and developmental processes, with particular expertise in advanced imaging techniques and nanomaterial applications. Dr. Antoku's work demonstrates significant interdisciplinary integration, bridging molecular biology with innovative imaging technologies to address complex biological questions in cancer development and tissue regeneration. Analysis of her publication history reveals an evolution from foundational nanotechnology work (2008-2010) to more recent cancer biology and developmental research (2019-2024). Her contributions consistently focus on cellular dynamics, imaging methodologies, and molecular mechanisms underlying disease processes. Scientific Recognition Her 2008 paper in the Journal of the American Chemical Society has received over 825 citations Multiple publications featured in high-impact journals including Nature Cell Biology and Nature Communications Research highlighted across various news outlets and social media platforms As a member of BRIC's Core Facilities, Dr. Antoku provides specialized expertise to the broader research community while maintaining her own research trajectory. Her collaborative approach is evident in her extensive co-authorship network spanning multiple institutions and research domains.
Prof. Michael Schlierf is a Professor for Molecular Biophysics at B CUBE – Center for Molecular Bioengineering, Technische Universität Dresden (TU Dresden), where he has led his research group since 2017. Previously, he served as a Junior Group Leader at B CUBE from 2010-2017, following postdoctoral work at the University of Illinois at Urbana-Champaign. His research focuses on conformational dynamics of biomolecules, specifically membrane protein folding, protein-DNA interactions during DNA replication and recombination, and regulatory DNA and RNA structures. His group develops and applies advanced single-molecule spectroscopy and microscopy techniques to observe biomolecular dynamics at unprecedented resolution. Current methodological expertise includes molecular bioengineering, single-molecule FRET, TCSPC, magnetic tweezers, and optical tweezers. Prof. Schlierf's publication record spans high-impact journals including Nature Communications, Science Advances, and PNAS, with recent work emphasizing membrane protein biogenesis, DNA recombination mechanisms, and innovative single-molecule methodologies. His research program demonstrates consistent evolution from fundamental protein folding studies to complex biological systems. BMFTR Go-Bio initial (2025-2026) DAAD PROCOPE German-French collaboration (2025-2026) EFRE-JTF aCOS validation funds (2024-2026) DFG projects on outer membrane protein biogenesis, replication initiation, and relaxase dynamics Previous funding from BMBF, DFG Clusters of Excellence (Physics of Life), and Boehringer Ingelheim Foundation Prof. Schlierf actively supervises multiple PhD students and postdocs, with a track record of successful alumni who have secured positions in academia and industry. His group maintains an interdisciplinary environment that bridges physics, biology, and chemistry approaches to study fundamental biomolecular processes. The Schlierf Group operates within B CUBE – Center for Molecular Bioengineering at TU Dresden, with access to state-of-the-art single-molecule instrumentation and collaborative opportunities across the university's strong life sciences ecosystem. The group participates in teaching activities at the Center for Molecular and Cellular Bioengineering and contributes to graduate education through the Dresden International Graduate School for Interdisciplinary Life Sciences.
Derek Toomre is a Professor of Cell Biology at Yale School of Medicine and Director of the YALE 'CINEMA' Laboratory (Cellular Imaging using New Microscopy Approaches). He holds primary appointments in the Department of Cell Biology and has extensive affiliations across Yale University including Biochemistry, Quantitative Biology, Biophysics and Structural Biology (BQBS), Cancer Signaling Networks, Diabetes Research Center, and the Yale Cancer Center. His interdisciplinary work bridges cell biology, biophysics, and advanced imaging technology. Professor Toomre earned his PhD (1996) and MS (1992) from the University of California, San Diego. His research focuses on developing and applying advanced optical methods to understand polarized membrane trafficking and the spatial-temporal control of endo-exocytosis. He specializes in Total Internal Reflection Fluorescence Microscopy (TIRFM) and 4D (3D+time) multicolor spinning-disk confocal imaging to study cellular processes at the single-vesicle level. His work has significant implications for understanding cell polarity in both normal physiology and disease processes such as cancer metastasis. Analysis of Professor Toomre's recent publications (2017-2025) reveals a strong focus on membrane trafficking mechanisms, super-resolution imaging techniques, and the development of novel imaging tools. His research spans multiple disciplines including cell biology, neuroscience, oncology, and biophysics, with particular emphasis on vesicle dynamics, protein sorting, and advanced microscopy method development. He consistently publishes in high-impact journals including Nature Communications, Cell, and Nature Biotechnology. Scientific Awards: Kavli Fellow (2008) - US National Academy of Sciences NIH Director New Innovator Award (2007) Professor Toomre directs the CINEMA Laboratory, which is supported by the Ludwig Institute for Cancer Research (LICR), various federal grants, Yale University, and private sector funding. His laboratory has implemented multicolor TIRFM instruments, 4D spinning disk confocal microscopy, and electrophysiology instrumentation to advance cellular imaging capabilities. He collaborates extensively both within Yale (particularly with Biomedical Engineering) and internationally to develop novel software for cellular analysis and computational modeling. Professor Toomre's laboratory provides students and researchers with opportunities to work at the cutting edge of cellular imaging technology, combining biological questions with advanced quantitative approaches to understand fundamental cellular processes.
Xiangcheng Sun is an Assistant Professor in the Department of Chemical Engineering at Rochester Institute of Technology's Kate Gleason College of Engineering. His research integrates Chemical Engineering , Materials Science , and Analytical Chemistry to develop advanced sensors and nanomaterials. Research interests focus on: Nanomaterial synthesis (e.g., carbon dots for fluorescence-based detection) Spectroscopic methods (Raman, optical sequencing) Applications in environmental monitoring (water, metal ions) and biomedical diagnostics (glucose detection) His publications (2021–2025) emphasize sensor innovation , with recurring themes in nanomaterials, selectivity enhancement, and analytical reliability. Trends include carbon dots for multipurpose sensing (ferrous ions, palladium, water) and spectroscopic techniques for biomedical and polymer analysis.
Falk Schneider is an Assistant Professor at the University of Warwick, where since March 2025 he leads the Fluorescence and Membrane Dynamics (FMD) Lab. He is part of the Centre for Mechanochemical Cell Biology (CMCB) and the Cellular Interfaces Cluster, bringing together cell biologists, developmental biologists, and microscopists to understand membrane organization in fundamental biological processes. Dr. Schneider completed his Bachelor and Master studies in Biochemistry at Leibniz University in Hanover, Germany, beginning his scientific journey in 2010. He earned his PhD at the University of Oxford in the Eggeling Lab, which he joined in October 2015 and defended in January 2020. Following his PhD, he conducted postdoctoral work at the Fritzsche Lab for Biophysical Immunology at the University of Oxford and later at Scott Fraser's lab in the Translational Imaging Center at the University of Southern California (USC). His research centers on the development, advancement, and application of fluorescence microscopy and spectroscopy methods to quantitatively study cellular and sub-cellular dynamics. Dr. Schneider specializes in fluorescence fluctuation spectroscopy (FFS), particularly fluorescence correlation spectroscopy (FCS) in conjunction with super-resolution stimulated emission depletion (STED) microscopy. His work focuses on plasma membrane organization and signaling, biophysical imaging with smart probes like the Flipper tension probe, and computational simulations and data analysis using open-source Python programming. A significant portion of his recent work involves studying molecular interactions in physiological contexts using zebrafish as a model system. His publication record demonstrates expertise in quantifying biomolecular organization in membranes, with recent work on brightness-transit statistics (BTS) methodology that simultaneously measures diffusion dynamics and oligomerization. His research bridges advanced imaging techniques with fundamental biological questions about membrane organization in immune cells and developmental processes. Dr. Schneider has established strong technical expertise in both in vitro model membrane systems and in vivo applications, with a particular focus on making advanced quantitative imaging techniques more accessible to the broader research community through open-source software development and methodological tutorials.
Min Zhang serves as Assistant Professor in the Department of Chemistry and Guest Researcher in the Department of Drug Design and Pharmacology within the Molecular and Cellular Pharmacology division at the University of Copenhagen's Faculty of Science. Based at Universitetsparken 5 and 2 in Copenhagen Ø, Zhang maintains an active research profile with 14 publications between 2023-2025. Research focuses on protein aggregation dynamics and advanced drug delivery systems , utilizing super-resolution microscopy and machine learning approaches. Key areas include insulin aggregation modulation, metal-organic framework (MOF) nanocarriers, and real-time observation of protein assembly pathways. Recent work develops computational tools like SEMORE for morphological fingerprinting of protein assemblies. Publication trends show strong interdisciplinary collaboration, particularly with N.S. Hatzakis' group, spanning biophysics, nanomedicine, and pharmaceutical sciences. Work has attracted significant attention with coverage by 12+ news outlets and 26+ X (Twitter) mentions. Zhang's scientific contributions include: Development of single-particle tracking methodologies for intracellular drug delivery Novel insights into insulin aggregation modulation by osmolytes Machine learning frameworks for super-resolution data analysis Defect-engineered MOF platforms for cancer therapeutics Active collaborations span molecular pharmacology, biophysics, and nanotechnology research groups. Current work focuses on real-time monitoring of protein aggregation pathways and advanced nanocarrier systems for pharmacotherapy.
