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Fanny MomboisseView profile

Researcher

• Research Ethics
• Bioethics
• Medical Ethics
• +8 more

Fanny Momboisse is a Senior Research Ethics Advisor at the Ethics Unit of the Institut Pasteur, where she has been actively contributing since 2015. She holds a PhD in Cell Biology from the University of Strasbourg and a Master 2 in Medical Ethics and Bioethics from Paris Descartes University, reflecting her interdisciplinary expertise in both biological sciences and ethical frameworks for research. PhD, University of Strasbourg – Cellular communication in neuroendocrine cells Master 2 Research, Paris Descartes University – Medical Ethics and Bioethics Research experience at NIH (USA) and University of Valparaíso (Chile) Her research interests lie at the intersection of science and society, with a strong focus on research ethics, particularly in global health contexts. She specializes in informed consent, ethical standards in clinical and biomedical research, participant engagement, and the protection of human subjects, especially within African research settings. Her early scientific work centered on neuroendocrinology and HIV pathogenesis, which has evolved into a dedicated career in bioethics. Her recent publications demonstrate a clear shift from molecular cell biology to applied research ethics. The articles reflect a growing emphasis on ethical challenges during pandemics, transparency in research reporting, and improving informed consent processes. This trend highlights her commitment to strengthening ethical frameworks in translational and clinical research. Scientific Awards: No specific awards mentioned in the provided text. As Principal Investigator (PI) for multiple ongoing projects, Fanny Momboisse plays a leading role in capacity-building initiatives such as CECaBI II in Côte d'Ivoire and projects focused on improving consent practices and ethical standards. She has been an IRB analyst and is actively involved in scientific mediation, contributing to the broader discourse on science and society. She is part of the Ethics Unit at the Institut Pasteur, collaborating on institutional efforts to promote ethical research practices globally.

Sylvia SpellerView profile

Professor

• Scanning Probe Microscopy
• Surface Physics
• Nanoscience
• +7 more

Sylvia Speller is a Professor of Physics at the University of Rostock, where she leads research in nanoscale physical, molecular, and biological processes. She is affiliated with the Institute of Physics and has previously held a professorship at Radboud University Nijmegen, where she directed NanoLab Nijmegen, fostering academic-industry collaboration in nanoscience and technology. PhD in Physics, University of Osnabrück (1995) Habilitation in Physics (2002) Postdoctoral research in Eindhoven and Leuven Full Professor, Radboud University Nijmegen (2001–2012) Professor of Physics, University of Rostock (2012–present) Her research focuses on understanding and controlling nanoscale processes through the development and application of scanning probe microscopy methods. Key areas include energy transfer, chemical reactions, and biophysical interactions at surfaces involving metal nanoparticles, molecular aggregates, and proteins. She investigates systems under complex environments, adapting SPM techniques for specific experimental conditions. Analysis of her recent publications reveals a strong emphasis on scanning probe microscopy , particularly STM and AFM, applied to porphyrin assemblies , quantum dots , biomolecular interactions , and surface nanostructures . Her work bridges physics, chemistry, and biology, with applications in nanotechnology and materials science. She has contributed significantly to understanding molecular self-assembly, mechano-catalysis, and single-molecule force spectroscopy. Her scientific contributions have been published in high-impact journals such as Nature Nanotechnology , Physical Review B , Nano Letters , and Langmuir . While no specific awards are listed in the provided text, her sustained publication record and leadership roles indicate significant recognition in the field. Sylvia Speller teaches advanced physics courses including Experimental Physics VI (Nuclei and Particles), Surfaces and Nanostructures, and a Seminar on Scanning Probe Microscopy. She has advised multiple students and collaborators on projects involving molecular imaging, surface dynamics, and nanoscale characterization. Her research has been supported by interdisciplinary grants, particularly in nanoscience and biomaterials, though specific funding sources are not detailed here. She leads a research group focused on scanning probe techniques and has been instrumental in initiatives like the Advanced Scanning Probes for Innovative Nanoscience and Technology (ASPRINT). Her lab emphasizes method development and real-time imaging of dynamic processes at solid-liquid interfaces, contributing to both fundamental science and technological applications.

• Computational Neuroscience
• Neural Networks
• Neural Coding
• +11 more

Tatjana Tchumatchenko is a Group Leader at the Max Planck Institute for Brain Research in Frankfurt and affiliated with the University of Bonn Medical Center. She leads the Theory of Neural Dynamics group, focusing on computational models of neural coding, synaptic plasticity, and dendritic computation. Her work integrates mathematics, physics, and computer science to understand how neurons and networks process information. Institution: Max Planck Institute for Brain Research, Frankfurt Secondary Affiliation: University of Bonn Medical Center Group: Theory of Neural Dynamics Research Focus: Computational Neuroscience, Neural Coding, Synaptic and Dendritic Dynamics Her research spans from molecular-level processes like mRNA and protein distribution in dendrites to network-level phenomena such as information transmission, oscillations, and learning. She develops theoretical models and computational tools to analyze neural data and predict novel effects testable by experiments. Her interdisciplinary approach bridges theoretical neuroscience with experimental biology, often in close collaboration with experimental groups worldwide. The 15 most recent publications highlight a strong trend toward integrating molecular, structural, and functional aspects of synaptic and dendritic computation. Key themes include competitive synaptic plasticity, energy constraints on molecular localization, astrocyte involvement in learning, and the development of novel analytical methods for imaging and electrophysiology data. Her work increasingly connects computational principles with biological realism, influencing both neuroscience and artificial intelligence. Heinz Maier-Leibnitz-Prize (2016) ERC Starting Grant (2020) Boehringer Ingelheim FENS Research Award (2022) Young Academy of Europe Fellow (2019) Focus Magazine: 25 Young Innovators Shaping Germany’s Future (2017) Tchumatchenko has mentored over thirty students and postdocs, many of whom have received prestigious fellowships. Her research is supported by the Max Planck Society, DFG, and Hessian funding agencies. She actively contributes to the neuroscience community through organizing workshops, serving on program committees (Bernstein Conference, CNS, FENS), and promoting women in science. She currently chairs the Bonn Center for Neuroscience and co-organizes international workshops on dendritic computation and synaptic plasticity. Her lab operates at the intersection of theoretical modeling and experimental collaboration, with members shared across scientific groups. She emphasizes training the next generation of computational neuroscientists and fostering interdisciplinary dialogue.

• Nanomedicine
• Neuroscience
• Biomedical Engineering
• +3 more

Jinyoung Kang is a Researcher at the McGovern Institute for Brain Research, Massachusetts Institute of Technology (MIT). Their work focuses on developing advanced nanotechnology-based tools for biomedical applications, particularly in neuroscience and regenerative medicine. Kang's research emphasizes nanoparticle engineering, expansion microscopy techniques, and targeted drug delivery systems to address challenges in brain disorders, cancer therapy, and tissue repair. Key research interests include: Design of biocompatible porous silicon nanoparticles for therapeutic delivery Super-resolution imaging through expansion microscopy to visualize brain nanostructures Development of multifunctional nanomaterials for simultaneous diagnosis and treatment Optimization of drug release kinetics for targeted therapies Publications from 2020-2024 highlight Kang's contributions to neuroimaging innovations, tumor-targeted therapies, and regenerative biomaterials. The research demonstrates a strong emphasis on translating nanotechnology into clinical applications for conditions like rheumatoid arthritis, traumatic brain injury, and ovarian cancer. While no specific awards are listed, their work reflects impactful contributions to the fields of nanomedicine and biomedical engineering. Current affiliations include the McGovern Institute's neuroscience programs, with active collaborations in MIT's Department of Brain and Cognitive Sciences. No advising roles or grants are explicitly mentioned in the provided information.

• Biophysics
• Nanomedicine
• Cell Biology
• +7 more

Yuri Korchev is a Professor of Biophysics at Imperial College London's Department of Metabolism, Digestion and Reproduction, part of the Faculty of Medicine. His research focuses on biophysical and nanotechnological approaches to study cellular mechanics, ion dynamics, and disease mechanisms. He leads the Nanomedicine Lab at the Hammersmith Campus, specializing in developing advanced electrochemical sensors and scanning ion-conductance microscopy (SICM) techniques for single-cell analysis. His work spans diverse fields including cancer cell mechanics, neurodegeneration (e.g., Alzheimer's β-amyloid studies), and real-time monitoring of cellular responses to drugs or environmental stressors (e.g., ROS measurements). Recent projects involve nanoscale imaging of microbial structures (Candida parapsilosis), anticancer drug efficacy evaluation, and multiplexed viral antigen detection via nanopore sensors. He collaborates with the Stem Cell Regenerative Medicine Network and Pathology Section, bridging clinical and basic science research. Key innovations include novel nanopipette-based sensors for intracellular metabolite mapping and high-resolution 3D extracellular pH profiling of living cells. His articles emphasize correlative microscopy approaches combining SICM with fluorescent/confocal imaging to study cell surface dynamics and mechanical changes in disease states like cardiac myopathy and neuronal degeneration.

Christy LandesView profile

Professor

• Predictive Separations
• Spectro-electrochemistry
• Protein Dynamics at Interfaces
• +4 more

Christy Landes holds the Jerry A. Walker Endowed Chair in Chemistry and is a Professor of Chemistry at the University of Illinois Urbana-Champaign (UIUC), with affiliate appointments in Chemical and Biomolecular Engineering, Electrical and Computer Engineering, and the Materials Research Lab. Her research focuses on predictive separations, spectro-electrochemistry, and single-molecule spectroscopy to study interfacial dynamics in biological and synthetic systems. She leads the Landes Research Group, which develops advanced microscopy techniques and computational methods to analyze nanoscale phenomena. Education & Career: Landes earned her B.S. from George Mason University (1998) and Ph.D. from Georgia Institute of Technology (2003). She held postdoctoral positions at the University of Oregon and University of Texas-Austin before joining UIUC in 2023. Previously, she was at Rice University as the Kenneth S. Pitzer-Schlumberger Chair of Chemistry. Research Interests: The lab explores nanomaterials, protein dynamics, and predictive separation technologies. Key areas include plasmon-driven chemistry, interfacial charge transfer, and computational imaging. Recent work addresses challenges in protein purification via single-molecule insights and machine learning-driven nanoparticle analysis. Awards & Recognition: Landes has received the 2024 Kazuhiko Kinosita Award, 2023 AAAS Fellowship, NSF CAREER Award (2011), and Early Career ACS Award (2016). Her work bridges fundamental chemistry with applications in energy, biotechnology, and materials science. Labs & Teams: The Landes Group collaborates across disciplines, with recent projects on gold nanorod dissolution mechanisms, plasmon energy transfer, and AI-driven materials design. The lab includes postdocs, graduate students, and undergraduates, emphasizing mentorship and innovation.

Mikael BacklundView profile

Assistant Professor

• Optical Microscopy
• Quantum Sensing
• Magnetic Resonance
• +4 more

Mikael Backlund is an Assistant Professor of Chemistry at the University of Illinois, Urbana-Champaign, affiliated with the College of Liberal Arts & Sciences. His research focuses on advancing optical microscopy and quantum sensing techniques to study nanoscale systems in chemistry, materials science, and biology. He joined UIUC in 2020 after postdoctoral work at Harvard University and holds affiliations with the Illinois Quantum Information Science and Technology Center (IQUIST) and the Center for Biophysics and Quantitative Biology (CBQB). Backlund earned his B.S. in Chemistry from UC Berkeley (2010) and his Ph.D. in Chemical Physics from Stanford University (2016), supported by the Robert and Marvel Kirby Fellowship. His postdoctoral research at Harvard explored quantum diamond sensors and opto-magnetic imaging. His lab develops cutting-edge methods like nanoscale magnetic resonance microscopy using diamond NV centers and quantum metrology approaches for single-molecule imaging. Research areas include quantum-inspired super-resolution, biophysical systems analysis, and condensed matter physics. Projects bridge experimental and theoretical work, emphasizing precision and innovation. Backlund has been recognized with prestigious awards including the NSF CAREER Award (2025), Beckman Young Investigator Award (2023), and Scialog Fellowship (2025). His work intersects quantum science, biophysics, and materials chemistry, with applications in both fundamental and applied research.

Katharina KaiserView profile

Assistant Professor

• Atomic Physics
• Quantum Optics
• Nanotechnology
• +4 more

Katharina Kaiser is an Assistant Professor at the Fourth Physical Institute of the University of Göttingen. Her research focuses on atomic-scale imaging and manipulation of single molecules using advanced techniques such as scanning tunneling microscopy (STM) and atomic force microscopy (AFM). She investigates quantum phenomena in molecular systems, molecular electronics, and soot formation mechanisms, bridging physics, chemistry, and nanotechnology. Recent Research Trends: Her publications (2019–2025) emphasize quantum technologies, molecular engineering, and environmental chemistry. Key areas include plasmonic-enhanced fluorescence, molecular conductance tuning for neuromorphic computing, and characterization of soot precursors through π-radical localization. Her work also explores synthesis of novel carbon allotropes like cyclo[18]carbon and nonbenzenoid polycyclic hydrocarbons. Technical Expertise: She specializes in Combined AFM/STM imaging Single-molecule spectroscopy Quantum photon emission Nanoscale charge dynamics

Ramon Vilar CompteView profile

Professor

• Medicinal Inorganic Chemistry
• Chemical Biology
• Molecular Recognition
• +4 more

Professor Ramon Vilar Compte is Professor of Medicinal Inorganic Chemistry at Imperial College London 's Department of Chemistry within the Faculty of Natural Sciences . His multidisciplinary research group develops molecular tools for biological interrogation. Key affiliations include: CRUK Convergence Science Centre , Centre for Neurotechnology , Centre for Rapid Online Analysis of Reactions , and Grantham Institute Research focuses on: Medicinal Inorganic Chemistry of G-quadruplex DNA/RNA Metal complexes for cancer and antibacterial therapies Environmental remediation of toxic metals via molecular recognition Advanced optical imaging techniques using fluorescence/phosphorescence lifetime Recent publications demonstrate expertise in metal-based G-quadruplex probes , photocytotoxic antibiotics , and machine learning-driven drug discovery . Group members include 9 PhD students and 5 postdoctoral associates working across chemical biology and environmental science domains.

Alexander Francis PalazzoView profile

Professor

• Molecular Biology
• Cell Biology
• RNA Biology
• +3 more

Dr. Alexander F. Palazzo is a Professor in the Department of Biochemistry at the University of Toronto's Faculty of Medicine. His research focuses on the mechanisms governing mRNA nuclear export, subcellular localization, and the evolutionary forces shaping genomic nucleotide content. He has made significant contributions to understanding how cells distinguish functional RNAs from non-coding transcripts, and how RNA localization influences protein synthesis in specific cellular compartments. PhD in Cell Biology (Columbia University) Postdoctoral Fellowship at Harvard Medical School Dr. Palazzo's work integrates cell biology, biochemistry, and computational approaches to investigate: mRNA export through nuclear pores ER-targeted translation mechanisms Evolutionary patterns in gene structure Role of nuclear pore proteins in disease His publications reveal trends in RNA processing, disease mechanisms in Acute Necrotizing Encephalopathy, and evolutionary origins of functional elements from non-coding DNA. Awards include the Ontario Early Researcher Award, CIHR New Investigator Award, and multiple teaching distinctions. Jean D'Alembert Chair (2023-2024) Mid-Career Excellence in Graduate Teaching (2020) Connaught New Researcher Award (2011) Dr. Palazzo teaches graduate courses in evolutionary thinking and interdisciplinary science, and leads a multidisciplinary lab combining experimental and computational approaches to study RNA biogenesis and cellular information processing.

Melike LakadamyaliView profile

Professor

• Biophysics
• Cell Biology
• Microscopy
• +3 more

Melike Lakadamyali is a Professor at the Perelman School of Medicine , University of Pennsylvania, with secondary appointments in Cell and Developmental Biology. Her research focuses on biophysics , super-resolution microscopy , and macromolecular assembly dynamics in cellular processes. Education: BS (2001) from University of Texas at Austin, PhD (2006) from Harvard University Her work aims to understand the spatiotemporal organization of cellular machinery through advanced single-molecule imaging and quantitative models . Key projects include vesicle transport , transcriptional regulation , and chromatin plasticity . Recent publications highlight methodological innovations like ECLiPSE classification and MiOS imaging-computational strategies. Articles span nucleosome dynamics , mitochondrial fission , and microtubule regulation , emphasizing biophysical quantification . Scientific Awards: EMBO Young Investigator (2013), Ramon y Cajal Fellowship (2014), Hans Fisher Junior Fellow (2016), La Vanguardia Finalist (2016) She advises a research team developing super-resolution tools for vesicular trafficking and chromatin studies , with advisory roles on Bruker/Vutara and BioQuant boards. Her lab employs quantitative approaches to study macromolecular complexes in cellular homeostasis and disease mechanisms .

Fred GittesView profile

Clinical Professor

• Statistical Physics
• Biological Physics
• Optical Trapping
• +7 more

Fred Gittes is a Clinical Professor in the Department of Physics and Astronomy at Washington State University, part of the College of Arts and Sciences. He is actively involved in both undergraduate and graduate education, teaching a broad range of physics courses including honors physics, electromagnetism, modern physics, and biological physics. His research lies at the intersection of statistical physics, biophysics, and theoretical methods in physics. His research interests include: Statistical Physics and Thermodynamics Biological Physics and Micromanipulation Optical Trapping and Laser-Based Techniques Differential Geometry and Gauge Theory in Physical Systems Mechanics of Biological Motors and Polymers His recent publications reflect a continued interest in theoretical modeling of physical phenomena, especially in biological contexts. He has developed methods in microscopy and optical trapping, and has explored the use of differential forms in classical physics. His work has been highlighted by Nature Physics and recognized with the JOSA Spotlight on Optics. A recurring theme in his research is the use of thermal fluctuations to extract mechanical properties of soft and biological materials. Notable scientific recognitions include: Excellence in Teaching by a Clinical Faculty Member (2020 Faculty Teaching Award) Highlighted by Nature Physics for his 2018 paper on deriving Einstein's results from the Jarzynski equality Selected for JOSA’s Spotlight on Optics distinction for work on nonconservative forces in optical traps Fred Gittes has mentored several award-winning undergraduate students, including multiple recipients of the Four Outstanding Senior Award who cited him as their most influential teacher. He has delivered numerous colloquia on topics ranging from falling cats and gauge theory to the physics of blood spatter and nuclear radiation in popular culture. His teaching includes graduate-level courses in thermal physics, electrodynamics, and differential geometry, as well as innovative interdisciplinary offerings.

Basant Kumar ThakurView profile

Researcher

• Oncology
• Molecular Oncology
• Extracellular Vesicles
• +7 more

PD Dr. Basant Kumar Thakur is a researcher at the University Hospital Essen, affiliated with the Medical Faculty of the University of Duisburg-Essen. He leads the Cancer Exosome Research Lab within the Department of Pediatrics III, focusing on the role of extracellular vesicles (EVs) in cancer progression, particularly in pediatric acute myeloid leukemia (AML). His work bridges molecular oncology, liquid biopsy development, and cancer immunology. His research centers on three major themes: (i) identification and purification of cancer-specific EVs carrying dsDNA for clinical biomarker development; (ii) mechanisms of EV-DNA transfer into recipient cells; and (iii) functional consequences of this transfer on metastatic progression, including immune modulation via the cGAS/STING pathway. He has developed bead-based methods to isolate homogeneous EV populations and is analyzing large patient cohorts to establish EV-DNA as a tool for detecting minimal residual disease. The recent publications highlight a strong focus on EV biology, with applications in glioma therapy, plant-derived vesicles for drug delivery, and EV-DNA's role in immune activation and stem cell dysfunction. Keywords across articles include oncology, molecular biology, immunology, and nanomedicine, reflecting a multidisciplinary approach to cancer research. Scientific awards are not mentioned in the provided text. Dr. Thakur actively collaborates with Prof. Bernd Giebel (Transfusion Medicine, UK Essen) and contributes to EU and DFG-funded research programs. He is involved in PhD training through the ZMB (Centre for Medical Biotechnology) and participates in the European Liquid Biopsy Society. His lab investigates EV-based diagnostics and therapeutic strategies, particularly in pediatric cancers and solid tumors. The Cancer Exosome Research Lab is part of the ZMB and contributes to the Oncology research program. The team employs advanced techniques like single molecule localization microscopy and functional assays to study EV-DNA transfer and its impact on tumor microenvironment and metastasis.

Michael GramlichView profile

Assistant Professor

• Biophysics
• Neuroscience
• Microscopy
• +7 more

Michael Gramlich is an Assistant Professor in the Department of Physics at Auburn University. He holds a Ph.D. from the University of Missouri - Columbia (2011) and a B.S. from the same institution (2005). His research focuses on understanding the biophysical principles governing intracellular transport and resource sharing in neurons, particularly synaptic vesicle dynamics, myosin and kinesin motor proteins, and the structural constraints impacting synaptic function. His lab employs interdisciplinary approaches, combining microscopy, computational modeling, and genetic mouse/rat models to study presynaptic mechanisms. Key research questions include how vesicles navigate neuronal microtubules, how synapses prioritize resource allocation during activity, and the molecular underpinnings of synaptic plasticity and neurodegeneration. The lab's 'Physics of Cognition' framework seeks to link molecular-level processes to higher-level cognitive functions like memory formation. Gramlich has published extensively on topics such as vesicle recycling, axonal transport defects, and the role of myosin V in neurotransmitter release. While no explicit awards are listed, his work has advanced understanding of synaptic mechanisms relevant to neuropsychiatric and neurodegenerative disorders. He currently leads a growing laboratory and is recruiting new members to expand these research initiatives.

• Nanotechnology
• Scanning Tunneling Microscopy
• Surface Science
• +7 more

Borislav Naydenov is a Research Fellow at Trinity College Dublin, affiliated with the School of Chemistry and the Centre for Research on Adaptive Nanostructures and Nanodevices (CRANN). His work bridges physics and chemistry at the nanoscale, focusing on surface phenomena and quantum electronic structures. His research interests lie at the intersection of nanotechnology, surface science, and quantum device engineering . He specializes in scanning tunneling microscopy (STM) and scanning tunneling spectroscopy (STS) , using these tools to investigate molecular self-assembly, dangling bond nanostructures, and single-atom quantum interference effects. His studies often explore how atomic-scale configurations influence electronic behavior, contributing to the development of future nanoelectronic devices. The analysis of his 15 most recent publications reveals a consistent focus on atomic-scale surface characterization and electronic structure manipulation . His work spans from fundamental studies of molecular adsorption and adatom interactions to applied research in single-molecule contact formation and quantum transport. Key themes include the engineering of nanowires from surface dangling bonds , molecular network self-assembly , and coherent quantum interference at the single-atom level . These contributions are primarily published in high-impact journals such as Physical Review Letters , Nano Letters , and Physical Review B . Scientific awards: No scientific awards listed in the provided text. Borislav Naydenov has been actively involved in significant research projects, particularly in collaboration with Prof. John J. Boland, leading to numerous publications in top-tier journals. His work has contributed to advancing the understanding of single-molecule electronics and atomic-scale device fabrication . While no formal students or grant details are mentioned, his long-standing postdoctoral and research fellow roles suggest substantial mentorship and project leadership within the CRANN research environment. He is associated with advanced research infrastructure at CRANN, a leading center for nanoscience in Ireland. His research leverages state-of-the-art ultra-high vacuum STM systems and spectroscopic techniques, enabling atomic-level manipulation and measurement. This environment supports interdisciplinary work combining physics, chemistry, and materials science to push the boundaries of nanoscale science.