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Siegfried MusserView profile

Professor

• Cell Biology
• Molecular Biology
• Biophysics
• +4 more

Dr. Siegfried Musser is a Professor in the Department of Cell Biology and Genetics at Texas A&M University's School of Medicine. He holds a PhD from Caltech and joined Texas A&M in 2001 after postdoctoral work at UC Davis and Brandeis University. His research focuses on biophysical mechanisms of protein translocation and biomolecular condensates, using advanced microscopy techniques like single-molecule fluorescence and super-resolution imaging. Key projects include studying nuclear pore complexes, the bacterial Tat machinery, and phase-separated FUS condensates linked to neurodegenerative diseases. Education: AB in Biochemistry from UC Berkeley (1990), PhD in Chemistry from Caltech (1996), postdoctoral training at UC Davis (1996-1999) and Brandeis University (1999-2001). Research Interests: Protein translocation systems (Nuclear Pore Complex, Tat machinery), biomolecular condensates, ALS/FTD pathogenesis, and single-molecule imaging technologies. Current work explores transport pathways in nuclear pores, Tat translocation energetics, and FUS phase maturation using MINFLUX and polarization-PALM approaches. Awards: Junior Faculty Research Excellence Award (Texas A&M Health Science Center). Lab Roles: Mentors graduate students (e.g., Thom Weidman) and postdocs (e.g., Abhishek Sau). Ongoing funding includes grants from the Edward Mallinckrodt Foundation. The lab seeks postdocs, graduate students, and undergraduates for biophysics and cell biology projects. Labs/Teams: Musser Lab at Texas A&M Health Science Center, specializing in single-molecule biophysics and cellular transport mechanisms.

Kenneth KigerView profile

Professor

• Fluid Mechanics
• Multiphase Flows
• Turbulent Mixing
• +4 more

Kenneth Kiger is a Professor and Associate Dean of Undergraduate Programs in the Department of Mechanical Engineering at the University of Maryland, College Park. He holds the endowed Keystone Professor title and is affiliated with the Maryland Energy Innovation Institute and Brain and Behavior Institute. His research focuses on fluid mechanics and experimental techniques, with emphasis on multi-phase flows, particle-turbulence interaction, turbulent mixing in complex geometries, and applications in nuclear reactor safety, spray cooling, and sediment transport. Dr. Kiger earned his Ph.D. in Mechanical Engineering from the University of California, San Diego (1995). He has received the National Science Foundation CAREER Award (1997) and the Distinguished Scholar-Teacher award from the University of Maryland. His work has advanced fluid dynamics education and curriculum development, particularly in hands-on engineering pedagogy. His research employs advanced experimental methods like Particle Image Velocimetry (PIV) and Laser Induced Fluorescence (LIF). Notable projects include studying air entrainment by plunging jets, boron mixing in nuclear reactors, and the dynamics of sediment-laden flows. He has contributed to biomimetic fluid dynamics, exploring gill kinematics in mayfly nymphs, and developed novel measurement techniques for two-phase flows. Prof. Kiger actively engages in academic service, serving on the organizing committee for the APS Division of Fluid Dynamics Annual Meeting (2000) and as a reviewer for journals including Physics of Fluids and Journal of Fluid Mechanics. He has mentored numerous students and pioneered educational initiatives such as mastery-based assessment approaches in engineering education. His lab work involves fluid-structure interaction studies, particularly flexible plate impacts on water surfaces, and high-fidelity simulations of complex fluid dynamics phenomena. Recent contributions address environmental fluid mechanics (e.g., foundry physics modeling) and energy-related applications (e.g., spray cooling for electronics).

Mostafa VahdaniView profile

Researcher

• Accelerator Physics
• Terahertz Technology
• Electromagnetics
• +2 more

Mostafa Vahdani is a Postdoctoral Scientist at the UFOX group within the Center for Free-Electron Laser Science (CFEL) at DESY in Hamburg, Germany. His research focuses on electromagnetic design of high-gradient terahertz accelerators for advanced particle acceleration applications. He earned his Master of Science in Electrical Engineering from the University of Tehran, where he subsequently worked for three years as a technical specialist at the Antenna Type Approval Laboratory. In 2020, he joined the UFOX group as a PhD student to work on the AXSIS project before transitioning to his current postdoctoral role. Dr. Vahdani's research centers on terahertz-driven accelerator systems, specializing in dielectric loaded waveguide LINACs, coupler design, and start-to-end simulations. His work addresses critical challenges in compact accelerator development including THz generation optimization, waveguide coupling efficiency, and high-gradient structure stability for applications in ultrafast x-ray science. His publication record reveals a concentrated research trajectory since 2021, with 90% of his work focused on terahertz accelerator technology. Key advancements include single-sided pumped booster designs, sensitivity analysis of THz structures, and progress on the femtosecond AXSIS accelerator system, demonstrating consistent innovation in compact accelerator physics. As an active member of the UFOX research team at CFEL, Dr. Vahdani collaborates within DESY's interdisciplinary environment to advance terahertz-driven particle acceleration technologies for next-generation scientific instruments.

Martha GradyView profile

Associate Professor

• Adhesion
• Biomaterials
• Experimental Mechanics
• +4 more

Martha Grady serves as Associate Professor and Associate Department Chair in the Department of Mechanical and Aerospace Engineering at the University of Kentucky's Stanley and Karen Pigman College of Engineering. Her research integrates mechanical engineering principles with biomedical applications through the Grady Lab, where she leads experimental investigations into thin film adhesion mechanics at biological interfaces. Her educational background includes: Ph.D. in Theoretical and Applied Mechanics, University of Illinois at Urbana-Champaign (2014) M.S. in Theoretical and Applied Mechanics, University of Illinois at Urbana-Champaign (2011) B.S. in Mechanical Engineering, University of Central Florida (2008) Grady's research centers on experimental solid mechanics applied to biomedical challenges, particularly biofilm adhesion on medical implants. She pioneers laser-induced spallation techniques to quantify adhesion forces in biological systems, bridging mechanical engineering with dentistry, microbiology, and materials science. Her work addresses critical problems in medical device infections by developing novel measurement approaches for biofilm adhesion strength on titanium implant surfaces. Analysis of her recent publications reveals consistent focus on biofilm mechanics across dental, orthopedic, and space medicine applications. Key trends include development of standardized adhesion measurement protocols, investigation of surface modification effects on bacterial attachment, and exploration of nanoparticle transport through biofilm matrices. Her research spans from fundamental mechanics to clinical applications, with strong emphasis on translational outcomes. Scientific recognition includes: Lighthouse Beacon Foundation Scholar designation NSF CAREER Award for biofilm mechanics research Provost’s Postdoctoral Fellowship for Academic Diversity at University of Pennsylvania Grady actively mentors graduate students through competitive stipend programs, with trainees pursuing careers in academia, national laboratories, and industry. Her research program is supported by significant external funding including NASA EPSCoR grants for space-related biofilm studies and NSF funding for fundamental mechanics research. She maintains strong interdisciplinary collaborations across UK's Colleges of Engineering, Dentistry, and Medicine. The Grady Lab operates as a multidisciplinary research hub specializing in laser spallation, atomic force microscopy, and single-particle tracking. Current projects include biofilm adhesion in microgravity environments, additively manufactured metal interfaces, and intracellular nanoparticle dynamics, with equipment supporting high-strain-rate mechanical testing and nanoscale characterization.

Andreas LyberatosView profile

Associate Professor

• Numerical Methods in Applied Magnetism
• Magnetic Viscosity
• High-Speed Magnetization Switching
• +4 more

Andreas Lyberatos is an Associate Professor at the Department of Materials Science and Technology, University of Crete. He obtained his B.Sc. in Physics from the University of London (1982) and a Ph.D. in Physics (1986) from the same institution. His research focuses on Numerical methods in applied magnetism Magnetic viscosity in nanoparticles and thin films High-speed switching dynamics FePt media for heat-assisted magnetic recording (HAMR) Ballistic thermal transport in magnetic multilayers . His recent publications emphasize HAMR media, magnetic reversal mechanisms, and thermal effects in ultrafast switching. Collaborative work with Seagate Technology (2000–2008) and academic roles across the UK and Greece highlight his interdisciplinary expertise.

Clément CABRIELView profile

Researcher

• Single-Molecule Localization Microscopy (SMLM)
• Bioimaging
• Nanophotonics
• +5 more

Clément CABRIEL is a CNRS Researcher affiliated with the Institut Langevin (ESPCI Paris / PSL University). He specializes in Single-Molecule Localization Microscopy (SMLM) and its applications across bioimaging , nanophotonics , and microfabrication . Key Collaborations: Works with Ignacio Izeddin (Institut Langevin) and international teams on interdisciplinary projects. Research Focus: Develops 3D super-resolution techniques, event-based sensors for high spatio-temporal imaging, and microstructured substrates for cellular modeling and axial calibration. Achievements: Pioneered SMLM calibration tools using fractal-like substrates (2025), explored M2d macrophage differentiation via 3D topographies (2024), and advanced event-based sensor technology for dense single-molecule imaging (2023). His work bridges optics , materials science , and cell biology . Community Engagement: Co-organizes the Young Scientist Network GDR Imabio to foster European bioimaging collaboration and career development for early-career researchers.

Saša CeciView profile

Researcher

• Hadronic physics
• Resonances
• Elementary particle physics
• +1 more

Saša Ceci is a Senior Research Associate at the Ruđer Bošković Institute in Zagreb, Croatia, working in the Department of Experimental Physics and the Laboratory for Elementary Particle Physics. With a PhD in Physics from the University of Zagreb and postdoctoral experience at the University of Georgia, he has established himself as a prominent researcher in particle physics. Dr. Ceci earned his B.A. in Physics from the University of Zagreb (Faculty of Science and Technology) in 1998, followed by a Master of Science in 2003 and a PhD in 2007, all from the University of Zagreb (Faculty of Science). He completed a postdoctoral fellowship at the University of Georgia (UGA), USA in 2008. His research focuses on hadronic physics and resonances, with particular expertise in elementary particle physics and nuclear physics. Dr. Ceci's work often involves analyzing particle collision data to understand fundamental properties of resonances and hadronic interactions. His research combines theoretical models with experimental data analysis, contributing significantly to our understanding of particle physics phenomena. He has made important contributions to the extraction of pole and Breit-Wigner resonance parameters, as evidenced by his highly cited publications in Physical Review Letters. Dr. Ceci's recent publications span from 2020-2023 and demonstrate his active involvement in major particle physics experiments, particularly with the CMS Collaboration at CERN. His work covers diverse topics including resonance physics, heavy ion collisions, detector development, and searches for physics beyond the Standard Model. The consistent high-impact factor of his publications reflects the significance of his contributions to the field. Annual State Science Award (together with Marko Košiček) for the popularization and promotion of science in the field of natural sciences (2015) Annual award of the Ruđer Bošković Institute for excellent scientific work in 2013 As an active member of the CMS Collaboration, Dr. Ceci has contributed to numerous significant research projects at CERN. His work involves both theoretical aspects of particle physics and hands-on experimental work with detector systems. He has also authored two popular science books and participated in media projects like 'The Third Element' show on HTV, demonstrating his commitment to science communication and education. Dr. Ceci works within the Laboratory for Elementary Particle Physics at the Ruđer Bošković Institute, collaborating with international research teams on cutting-edge particle physics experiments. His laboratory work focuses on data analysis from the Large Hadron Collider and contributes to the development of detector technologies for future experiments. He is also involved in educational initiatives, including a 2023 publication on hybrid STEM education approaches.

• Biophysical Chemistry
• Protein Aggregation
• Super-Resolution Microscopy
• +3 more

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.

• Biophysics
• Cell Mechanics
• Optical Tweezers
• +4 more

Younes Farhangibarooji is an Academic Staff member at the Biocomplexity section of the Niels Bohr Institute, University of Copenhagen. His research focuses on the intersection of biophysics, cell mechanics, and optical manipulation techniques, with significant contributions to understanding cellular structures and developing biomedical applications. His research interests span multiple cutting-edge areas in biophysics. Primary focus areas include: Actin cytoskeleton dynamics and cellular mechanics Optical tweezers technology and applications Viscoelastic properties of biological materials Nanoparticle delivery systems for cancer therapy Organoid development and morphogenesis mechanics His work combines experimental biophysics with computational analysis to unravel fundamental cellular processes. His publication record shows significant collaborative work, particularly with the research group of Professor Lene B. Oddershede. Notable contributions include the comprehensive Roadmap for optical tweezers published in Journal of Physics-Photonics (2023) and groundbreaking research on filopodia mechanics published in Nature Communications (2022). His work has garnered substantial attention, with multiple publications covered by news outlets and academic social media platforms. Dr. Farhangibarooji's research demonstrates strong interdisciplinary connections between physics, biology, and medical applications, particularly in cancer research and regenerative medicine approaches using organoid models.

Tomas KirchhausenView profile

Professor

• Clathrin-mediated endocytosis
• Cellular membrane remodeling
• Structural biology
• +5 more

Tomas Kirchhausen is Professor of Cell Biology and of Pediatrics at Harvard Medical School and holds the Springer Family Chair of Pediatrics. He serves as a Senior Investigator at Boston Children's Hospital where he leads the Kirchhausen Laboratory focused on cellular membrane processes and molecular trafficking mechanisms. Dr. Kirchhausen received his undergraduate degree in Biology from the Universidad Peruana Cayetano Heredia and earned his Ph.D. in Biophysics from the Instituto Venezolano de Investigaciones Cientificas. His research spans over three decades and focuses on the structure, interactions, and assembly-disassembly mechanisms of clathrin and associated proteins. Using emerging technologies from molecular cloning to high-resolution structural visualization and live-cell imaging, his laboratory has created 'molecular movies' of clathrin-mediated endocytosis. His work integrates x-ray crystallography, cryo electron microscopy, and single-molecule biophysics to understand cellular membrane remodeling processes including intraluminal vesicle formation and nuclear pore assembly. Current research leverages Lattice Light Sheet Microscopy (LLSM) and Adaptive Optics-optimized LLSM to bridge the gap between molecular events and cellular function. Analysis of his recent publications (2023-2025) reveals a strong focus on integrating advanced imaging techniques with computational approaches, particularly deep learning applications for single-particle tracking and cryo-EM data analysis. His work spans multiple disease contexts including viral infections (particularly SARS-CoV-2), neurodegenerative disorders, and cancer biology, reflecting the broad implications of membrane trafficking research. 1st Place Video at the Celldance 2008 contest of the American Society of Cell Biology Featured in The New York Times article 'The Animators of Life' (November 15, 2010) YouTube 3D movie showing immune cell migration downloaded more than 700,000 times Dr. Kirchhausen's laboratory serves as a hub for interdisciplinary research, bringing together experts in structural biology, cell biology, and advanced microscopy techniques. His work on clathrin-mediated endocytosis has provided foundational insights into cellular trafficking mechanisms that are relevant to understanding viral infection, cancer, and neurological diseases. The laboratory's development and application of cutting-edge imaging technologies continues to push the boundaries of what can be observed in living cells.

• Physical Chemistry
• Aerosol Science
• Optical Spectroscopy
• +3 more

Professor Michael Cotterell is an Associate Professor in Physical Chemistry at the University of Oxford and a Tutorial Fellow in Chemistry at Corpus Christi College. He joined Oxford in September 2023, bringing expertise in laser-based spectroscopy of aerosol particles and a track record of atmospheric science research. His work bridges experimental physical chemistry with environmental applications. Undergraduate: Chemical Physics, University of Bristol (2008-2012) PhD: University of Bristol (2012-2016) Postdoc: University of Exeter (2016-2019) Current: University of Oxford (2023-present) Cotterell's research focuses on laser-based spectroscopy of aerosol particles , particularly their optical, physical, and chemical properties . His group develops non-contact measurement techniques using optical and electrodynamic traps to study single levitated particles, collaborating with the Met Office on atmospheric instrumentation. Applications include climate modeling and understanding reaction acceleration in aerosols. His publications highlight expertise in refractive index retrievals , photoacoustic energy transfer , and single-particle cavity ring-down spectroscopy . Methodological innovations in aerosol analysis dominate his recent work, particularly for mobility-selected and internally mixed particles. Analytical Chemistry Trust Fund Tom West award NERC Independent Research Fellowship Cotterell supervises students and researchers in physical chemistry, with a focus on atmospheric aerosols. His lab combines experimental spectroscopy, instrument development, and collaborations with climate scientists to address challenges in aerosol characterization and environmental impact.

Daniel CoombsView profile

Associate Professor

• Computational Immunology
• Mathematical Biology
• Viral Disease Dynamics
• +3 more

Daniel Coombs is an Associate Professor in the Department of Mathematics at the University of British Columbia, where he has held a faculty position since joining in 2003. His academic background includes: PhD from the University of Arizona (2001) Postdoctoral Fellowship at Los Alamos National Laboratories (2001-2003) Dr. Coombs' research centers on computational immunology, applying advanced mathematical modeling to biological systems. His work specifically investigates viral disease dynamics, HIV pathogenesis, and receptor mobility on cell surfaces. He pioneered innovative single particle tracking algorithms that significantly enhanced experimental data interpretation in cell biology, demonstrating exceptional interdisciplinary impact. His scientific recognition includes: CAIMS/PIMS Early Career Award (2010) for creativity, productivity, and growing influence in applied mathematics to biological problems Additional professional service encompasses committee roles for CAIMS, including the Arthur Beaumont Award Committee and CAIMS-PIMS Early Career Award Committee (2014).

Amir TaheriView profile

Researcher

• Carbon Capture and Storage
• Well Integrity
• Improved Oil Recovery
• +3 more

Amir Taheri is a Senior Researcher at NORCE Norwegian Research Centre in Stavanger, Norway, operating within the Energy and Technology division and leading the Well Operations and Risk Management research group. His work addresses critical energy transition challenges through Carbon Capture, Utilization and Storage (CCUS), Hydrogen, and well integrity research. Dr. Taheri's research spans CO2 storage in saline aquifers with focus on convective mixing processes, well construction/intervention technologies, and barrier remediation systems. His experimental work includes developing granite-based geopolymers, glass-based remediation fluids, and nanosealant technologies for microannulus repair. The research directly impacts well integrity in CCUS operations and hydrogen infrastructure development, with strong emphasis on experimental validation of novel materials and measurement systems. Recent publications (2023-2025) reveal a clear trend toward field-applicable solutions for well barrier challenges. Key themes include experimental validation of geopolymer systems, glass-based annular remediation fluids, pipe viscometer advancements for real-time monitoring, and microannulus repair using nanosealants. These works bridge laboratory findings with practical field implementation, addressing industry needs for reliable well integrity solutions in energy transition contexts. The Well Operations and Risk Management group conducts cutting-edge experimental studies using specialized equipment like Hele-Shaw cells and pipe viscometers. Their work supports Norway's energy sector through NORCE's applied research model, focusing on practical solutions for CO2 storage, hydrogen deployment, and sustainable well operations. The group maintains strong industry connections through SPE conferences and collaborative projects with energy operators.

Stefan DiezView profile

Professor

• Single-Molecule Biophysics
• Nanotechnology
• Molecular Transport
• +5 more

Prof. Dr. Stefan Diez leads the Diez Group at B CUBE – Center for Molecular Bioengineering, Technische Universität Dresden, where he has been Professor for BioNanoTools since 2010. Previously, he served as Group Leader at the Max Planck Institute of Molecular Cell Biology and Genetics (2004-2010) and researcher in Optical Technology Development at the same institute (2000-2004). He holds a PhD in Physics from Technical University of Berlin (2000). His interdisciplinary research bridges cell biology and nanotechnology, focusing on: Molecular transport mechanisms in cellular systems Single-molecule biophysics and advanced optical imaging In vitro reconstruction of subcellular mechano-systems Biomolecular motor applications in nanotechnology Smart surfaces with stimuli-responsive polymer layers Parallel computation using molecular-motor systems The lab's recent publications demonstrate strong focus on motor protein dynamics (kinesin), microtubule behavior, nanoscale transport systems, and quantum dot applications. Research consistently combines experimental biophysics with engineered solutions for nanotechnology challenges. Prof. Diez leads the Diez Group (BioNanoTools Lab) developing novel techniques including 3D single-particle tracking, biotemplate nanostructuring, and microfluidics integration. The lab specializes in converting biological transport mechanisms into functional nanotechnology platforms.

• Nanoparticle characterization
• Holographic microscopy
• Machine learning applications in physics
• +5 more

Daniel Midtvedt is a Senior Lecturer in the Department of Physics at the University of Gothenburg. His research bridges physics, nanotechnology, and machine learning, focusing on advanced optical techniques for nanoparticle characterization and biological applications. His research interests include: Nanoparticle characterization using holographic and interferometric microscopy Machine learning applications for microscopy data analysis Label-free detection methods for biological nanoparticles Light-matter interactions at the nanoscale Development of optical sensors for environmental monitoring Analysis of his publication record from 2020-2025 reveals a strong interdisciplinary approach combining physics, nanotechnology, and machine learning. His work frequently appears in high-impact journals including Nature Communications, Nano Letters, and ACS Nano, demonstrating significant contributions to the field of optical microscopy and nanoparticle analysis. Midtvedt's research shows consistent progression in developing increasingly sophisticated methods for characterizing nanoscale phenomena. Daniel Midtvedt maintains active collaborations with researchers including Giovanni Volpe and Fredrik Hook, indicating strong integration within the physics and biophysics research community at the University of Gothenburg. His work demonstrates both theoretical and practical contributions to the field of nanoscale optical characterization.