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Simon TrowitzschView profile

Research Fellow

• Ribonucleoprotein Complexes in Gene Expression
• Mechanisms of Antigen Processing and Presentation in Adaptive Immunity
• Enabling Technologies for Multiprotein Complex Research
• +3 more

Dr. Simon Trowitzsch is a Group Leader at the Institute of Biochemistry at Goethe-University Frankfurt, where he also serves as a Senior Scientist collaborating with Prof. Robert Tampé. His research focuses on ribonucleoprotein complexes, antigen processing mechanisms, and enabling technologies for studying multiprotein complexes. He holds a PhD in Biochemistry from Georg-August University Göttingen and Max-Planck Institute for Biophysical Chemistry, and a Diploma in Biochemistry from Georg-August University. Dr. Trowitzsch leads a team (TrowitzschLab) investigating fundamental aspects of gene expression and immune system function. His work integrates structural biology, molecular biology, and advanced biophysical techniques. Notable achievements include structural studies of the MHC-I peptide-loading complex and discoveries in tRNA splicing ligase mechanisms. Research Interests: Ribonucleoprotein complexes in gene expression Antigen processing pathways in adaptive immunity Development of tools for multiprotein complex analysis Key Awards: Marie-Curie Intra-European Fellowship (2010–2012) Max-Planck Research Stipend (2008–2009) Funding: DFG Grant on tRNA Biogenesis Associated Member of Collaborative Research Center 902 His group actively collaborates with institutions like the European Molecular Biology Laboratory (EMBL) and employs cutting-edge methods such as cryo-EM and mass spectrometry. Future work aims to bridge structural insights with functional studies of immune-related complexes.

Simon WhiteView profile

Assistant Professor

• RNA Viruses
• Viral Assembly Mechanisms
• Cryo-Electron Microscopy
• +13 more

Simon White is an Assistant Professor at the University of Connecticut, affiliated with the Department of Molecular and Cell Biology. His research focuses on the assembly mechanisms of RNA viruses, particularly the Picornaviridae family, which includes pathogens like polio and the common cold. White employs cryo-electron microscopy, cell biology, and single-molecule biophysics to investigate how viruses hijack cellular machinery for replication. His work aims to identify novel targets for antiviral therapies. His 2019 publication on "Safe Plunge Freezing" highlights his technical contributions to cryo-EM sample preparation, a critical method in structural virology. Email: simon.white@uconn.edu

Matthew G. ReuterView profile

Associate Professor

• Computational Chemistry
• Mathematical Physics
• Single-Molecule Behavior
• +3 more

Matthew G. Reuter is an Associate Professor of Practice in the Institute for Advanced Computational Science at Stony Brook University. He holds a Ph.D. from Northwestern University in Theoretical/Computational Chemistry and Mathematical Physics. Before joining SBU in 2014, he conducted research at Oak Ridge National Laboratory as a Eugene P. Wigner Fellow and at Northwestern University, focusing on electron transport and materials chemistry. Research interests include theoretical development and computational methods for studying electron transport processes, materials chemistry, and non-equilibrium quantum systems. His group specializes in algorithms for nanoscale phenomena and high-performance computing applications. Professor Reuter has received multiple teaching awards including the College of Engineering and Applied Sciences Excellence in Teaching Award. He maintains an active research group website at you.stonybrook.edu/reutergroup, where updates on student achievements (such as a student's Provost’s Award for Academic Excellence) are documented.

• Protein Biophysics
• Structural Biology
• Computational Biology
• +4 more

Victor Muñoz is a Professor in the Department of Bioengineering at the University of California, Merced. His research focuses on protein biophysics, structural biology, and synthetic molecular biology with applications in bionanotechnology, biosensor design, and drug delivery systems. He leads the Muñoz Lab, which investigates mechanisms of protein folding, binding, and functional dynamics using experimental and computational approaches. Research interests include: protein folding kinetics, allosteric macromolecular assemblies, single-molecule spectroscopy, and engineering ultrafast biosensors. Key projects involve developing diagnostic tools for HIV and SARS-CoV-2 using engineered proteins, studying transcription factor-DNA interactions, and exploring the role of conformational disorder in gene regulation. Publications span biophysics journals and cover topics like molecular simulations of intrinsically disordered proteins, ultrafast folding dynamics under mechanical force, and the design of genetically encoded calcium sensors. His work bridges experimental biophysics with computational modeling to address fundamental questions in molecular biology and engineering. Victor Muñoz is also involved in journal leadership, serving as a founder of Biophysica , an open-access journal for interdisciplinary biophysical research.

Wang WeiweiView profile

Assistant Professor

• Biophysics
• Ion Channels
• Membrane Proteins
• +2 more

Wang Weiwei is an Assistant Professor in the Department of Biophysics at UT Southwestern Medical Center. His lab studies ion channel clusters using artificial membranes, fluorescence microscopy, and cryo-electron microscopy to correlate structural dynamics with electrical signaling. Research focuses on membrane protein biophysics, including glycine and hERG channel mechanisms, GIRK regulation, and innovative imaging techniques. Recent publications highlight structural insights into ion channel gating, high-throughput drug screening, and single-molecule methodologies. Lab members include postdoctoral researchers and technicians, but no student advisees or awards are listed.

Robert H. SingerView profile

Professor

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

Robert H. Singer is a Professor and Co-Chair of Anatomy & Structural Biology, Professor of Cell Biology and Neuroscience at Albert Einstein College of Medicine. He holds the Harold and Muriel Block Chair in Anatomy & Structural Biology and co-directs the Gruss Lipper Biophotonics Center and the Integrated Imaging Program. His research focuses on RNA dynamics, including single-molecule imaging of mRNA from transcription to degradation, and developing advanced microscopy techniques. He leads a lab renowned for innovations in fluorescent RNA labeling and real-time tracking of mRNA trafficking in living cells. Research Interests: Dr. Singer’s work centers on understanding RNA expression, localization, and translational regulation. His lab pioneered methods to visualize RNA in living cells using fluorescent probes and super-resolution microscopy, enabling the study of mRNA behavior in neurons, fibroblasts, and yeast. Key topics include RNA localization mechanisms, stress granule formation, and the impact of mRNA dynamics on health and disease. Patents: He has authored numerous patents, including technologies for RNA visualization (e.g., US Patent #6,586,240), multi-fluor FISH assays, and in-situ hybridization methods. These innovations underpin his lab’s contributions to biotechnology and diagnostics. Lab & Collaborations: The Singer Lab collaborates widely, advancing tools for studying HIV latency, coronavirus replication, and RNA-protein interactions. His team includes over 50 current and former trainees, reflecting a commitment to mentoring the next generation of scientists. Publications: Recent work spans topics like mRNA stability in yeast, intercellular RNA transfer, and imaging techniques for neurodegenerative diseases. Over 200+ publications highlight his lab’s interdisciplinary impact in cell biology, neuroscience, and biophysics.

Young J. YoonView profile

Academic

• RNA Localization
• Local Protein Synthesis
• Neuroscience
• +3 more

Young J. Yoon, Ph.D., is a Research Assistant Professor in the Dominick P. Purpura Department of Neuroscience and the Department of Cell Biology at Albert Einstein College of Medicine. His research focuses on mechanisms of dendritic RNA localization, local protein synthesis, and structural plasticity of synapses. Utilizing advanced microscopy techniques, such as single-molecule imaging, he investigates how neurons regulate mRNA distribution and translation to control synaptic plasticity and gene expression in real-time. Key contributions include demonstrating glutamate-induced mRNA localization and translation in dendrites, as well as visualizing intracellular translation dynamics in live neurons. Dr. Yoon’s work integrates molecular biology with cutting-edge imaging strategies to study neuronal mRNA dynamics, synaptic signaling, and the molecular underpinnings of synaptic strengthening. His publications highlight innovations in tracking RNA and ribosome movements, quantifying protein-mRNA interactions, and visualizing translation hotspots in live cells. While no awards or grants are explicitly listed, his research has been published in high-impact journals like Science , Cell , and Proceedings of the National Academy of Sciences . His interdisciplinary approach bridges neuroscience, cell biology, and biophysics, with applications in understanding neuroplasticity and neuronal communication.

Aleksander WysockiView profile

Assistant Professor

• Computational Material Science
• Magnetic Materials
• Spintronics
• +4 more

Aleksander Wysocki is an Assistant Professor in the Department of Physics and Astronomy at the University of Nebraska-Kearney. His research focuses on computational materials science, particularly magnetic materials and their applications in spintronics, sustainable energy, and quantum information technologies. He teaches courses including General Physics, Computational Methods in Physics and Astronomy, and Solid State Physics. Education: Completed undergraduate studies at Adam Mickiewicz University (Poland), earned a PhD in Physics from the University of Nebraska-Lincoln. Postdoctoral research included positions at Cornell University, Ames Laboratory, and Virginia Tech. Research Interests: Development of first-principles electronic structure calculations and quantum chemistry techniques to study nanomagnets, magnetic alloys, multiferroics, and molecular systems. Current work emphasizes electrically tunable hyperfine interactions, magnetic adatoms on surfaces, and quantum materials for next-generation technologies. Publications highlight advancements in computational modeling of rare-earth adatoms, magnetic anisotropy in molecular systems, and spintronics applications. His research bridges theoretical and applied physics, with a focus on material design for energy and quantum computing. Labs/Teams: Active in the University of Nebraska-Kearney Physics Department’s computational materials research group.

Abhijit SarkarView profile

Associate Professor

• Biophysics
• Single-Molecule Manipulation
• DNA-Protein Interactions
• +2 more

Dr. Abhijit Sarkar is Associate Professor of Physics at Catholic University of America, specializing in experimental biophysics and single-molecule techniques. His laboratory develops magnetic tweezers instrumentation to investigate DNA-protein interactions and chromatin mechanics, with recent work focusing on epigenetic modifications of nucleosomes. He teaches undergraduate and graduate courses including Biophysics, Statistical Mechanics, and Mathematical Methods. His research integrates concepts from condensed matter physics to model biological processes across molecular and genetic scales.

Lacramioara BintuView profile

Associate Professor

• Chromatin Dynamics
• Gene Regulation
• Bioengineering
• +3 more

Lacramioara Bintu is an Associate Professor of Bioengineering at Stanford University. Her research focuses on single-cell and high-throughput measurements of chromatin and gene regulation dynamics, aiming to develop predictive models and advance mammalian cell engineering. Ph.D., Physics (2010) - University of California, Berkeley B.S., Physics, Mathematics, Neuroscience (2005) - Brandeis University Her lab integrates single-molecule methods, live-cell imaging, and mathematical modeling to uncover molecular mechanisms of transcription and epigenetic regulation. She previously conducted postdoctoral research in Michael Elowitz's lab at Caltech and earned her doctorate at UC Berkeley under Carlos Bustamante. Contact: lbintu@stanford.edu | Bintu Lab Site

Timothy C BerkelbachView profile

Associate Professor

• Theoretical Chemistry
• Quantum Dynamics
• Condensed Matter Physics
• +3 more

Timothy C Berkelbach is an Associate Professor in the Department of Chemistry at Columbia University and Senior Research Scientist/Co-Director at the Flatiron Institute's Initiative for Computational Catalysis. He holds a B.A. from NYU (2009) and a Ph.D. from Columbia University (2014). His research focuses on quantum-mechanical problems in excited-state phenomena, bridging theoretical chemistry, condensed-matter physics, and materials science. Key areas include quantum dynamics, emerging materials, and condensed-phase electronic structure. He has received prestigious awards, including the 2025 ACS Award in Pure Chemistry and DOE Early Career Award. His group's work spans topics like superconductivity in cuprates, vibrational polaritons, and anharmonic materials. Current students include Diana Chamaki, Jason Liang, and Ethan Vo. Collaborations with experimental groups (e.g., Delor, Venkataraman) highlight interdisciplinary impact.

Jeroen Anton van KANView profile

Associate Professor

• Ion Beam Technology
• Micro and Nanofabrication
• Nanofluidics
• +3 more

Jeroen Anton van KAN is an Associate Professor at the Department of Physics , Faculty of Science , National University of Singapore (NUS). He serves as the Director of the Centre for Ion Beam Applications (CIBA) . His research focuses on ion source development for next-generation ion nano-probes, micro/nanofabrication techniques (Proton Beam Writing, Nano Imprint Lithography), nanofluidic lab-on-chip devices for single-molecule detection, and materials modification using ion beams (Graphene, Magnetic Materials, Diamond Films). Current research activities include: Development of high-brightness nano-aperture ion sources Advanced micro/nanofabrication methods Disposable nanofluidic lab-on-chip systems Ion beam-induced material property modification High-resolution proton beam writing facilities

Eric SiggiaView profile

Adjunct Professor

• Biological Physics
• Statistical Mechanics of DNA
• Stochastic Gene Expression
• +4 more

Eric Siggia is an Adjunct Professor in the Department of Physics at Cornell University, with research spanning biological physics and computational modeling. His work focuses on the interplay between molecular signaling and embryonic development. Education: AB in Physics, Harvard College (1971) PhD in Physics, Harvard University (1972) Research interests include statistical mechanics of DNA , stochastic gene expression , cell cycle regulation in yeast , and quantitative embryonic patterning . He develops geometric models for dynamical systems to explain embryonic symmetry breaking and spatial organization. His recent publications highlight advancements in stem cell self-organization , adaptive signaling pathways , and in silico evolution methods applied to developmental biology. Articles span topics from BMP4-driven symmetry breaking to TGF-β temporal signal processing. Scientific Awards: Elected Member, US National Academy of Sciences (2009) Collaborates with the Laboratory of Molecular Embryology at Rockefeller University, integrating microfluidic experiments , time-lapse microscopy , and computational modeling . His lab members transition between theoretical and experimental work, focusing on human embryonic stem cells and developmental patterning mechanisms.

Amani HaririView profile

Assistant Professor

• DNA Biosensors
• Neurochemistry Monitoring
• Single-Molecule Diagnostics
• +3 more

Dr. Amani Hariri is an Assistant Professor in the Department of Chemistry within the Faculty of Science at the University of British Columbia. Her research focuses on developing cutting-edge DNA-based nanosystems for biomedical applications, particularly in neurochemical sensing, diagnostic platforms, and targeted drug delivery. She leads the Hariri Lab, which specializes in creating integrated optical biosensors for brain studies and novel diagnostic mechanisms for early disease detection. Her research interests encompass DNA-based sensors for neurotransmitter mapping, single-molecule diagnostic platforms for early disease detection, and stimulus-responsive nanosystems for targeted therapeutic delivery. The laboratory employs aptamer switches and optical detection methods to create advanced tools for quantitative chemical analysis in biological systems. Dr. Hariri's recent publications demonstrate a consistent focus on biosensing platforms, with emphasis on aptamer-based detection systems, molecular switching mechanisms, and diagnostic innovations. Her work frequently incorporates nanotechnology approaches to improve sensitivity and specificity in complex biological matrices. The Hariri Lab maintains an active research group with several students conducting summer research projects. Recent achievements include awards received by lab members such as SURS Awards, NSERC USRA, and presentation opportunities at national conferences.

Gunnar PruessnerView profile

Associate Professor

• Non-equilibrium systems
• Mathematical Physics
• Field Theory
• +4 more

Dr. Gunnar Pruessner is an Associate Professor in Mathematical Physics at the Department of Mathematics, Imperial College London, within the Faculty of Natural Sciences. His research focuses on non-equilibrium systems, field theory applications in active matter, entropy production, and stochastic processes in biological systems. He leads the Non-equilibrium Systems Group, exploring phenomena such as self-organized criticality, reaction-diffusion processes, and active particle dynamics. His work bridges theoretical physics and applied mathematics, with contributions to understanding complex systems through field-theoretic approaches. His educational background includes advanced studies in physics and mathematics, culminating in his current role. He advises numerous PhD and master’s students, mentoring them in topics like active matter, stochastic processes, and theoretical biophysics. Collaborations span interdisciplinary fields, including plant biology and cell dynamics, as evidenced by his work on chromatin dynamics and root regeneration. Pruessner’s research emphasizes entropy production in non-equilibrium systems, the universality of branching processes, and numerical methods for critical phenomena. He has authored a seminal book on self-organized criticality and numerous high-impact journal articles. His group’s activities include organizing seminars and workshops, fostering a collaborative environment for early-career researchers.