
Explore single-molecule biophysics, kinesin motors, and optical traps. Discover how molecular machines work through cutting-edge experiments and statistical analysis.

Explore computational tools for biology, focusing on Gelbox - a simulation for teaching gel electrophoresis. Learn about DNA nanotechnology, science communication, and the power of interactive simulations in research and education.

Explore laws constraining sensitivity in small, nonequilibrium systems. Uncover mechanisms behind biochemical switches, sensors, and molecular discrimination, with implications for gene regulation models.

Explore the fascinating intersection of physics and biology, uncovering how nonequilibrium principles shape living systems and their complex behaviors.

Explore how physics explains human lifespan, brain capacity, and our connection to all life. Discover the physical limits of evolution and why we sleep.

Explore embryogenesis through quantitative analysis of morphogenetic flows, uncovering fundamental kinematic units and their mechanistic origins in avian gastrulation, with implications for evolution and synthetic morphogenesis.

Explore Nobel Prize-winning neuronal signalling models, including Hodgkin-Huxley and Fitzhugh-Nagumo, to understand how neurons generate and propagate electrical signals vital for bodily communication.

Explore a captivating lecture by 2024 Nobel Prize in Physics winner John Hopfield, delivered at the Kavli Institute for Theoretical Physics in 2010. Delve into the intricate relationship between experiment and theory in neuroscience over the past quarter…

Explore local versus nonlocal models for mitochondria swelling in this 30-minute conference talk by Messoud Efendiev from Helmholtz Zentrum München. Delve into the mathematical and computational approaches used to study mitochondrial dynamics, focusing o…

Explore quantitative methods for analyzing large-scale dynamics in complex molecular systems, focusing on advanced techniques and their applications in molecular biophysics.

Explore computational biophysics methods for understanding mechanosensing, focusing on cutting-edge approaches and their applications in molecular biology research.

Explore a physicist's perspective on genome modeling, blending molecular biophysics with computational approaches to unravel complex biological systems.

Explore mechanical properties of polymerosomes using molecular dynamics simulations, gaining insights into their behavior and potential applications.

Explore computational methods for studying ultrafast interactions between proteins and water molecules, uncovering insights into molecular biophysics.

Explore generative diffusion models for protein design, covering theoretical foundations and applications in sequence and structure generation for optimized engineering and biological insights.

Explore rapid chain dynamics in disordered proteins and nucleic acids through advanced probing techniques, uncovering molecular insights crucial for understanding biological processes.

Explore protein dynamics and their impact on brain function with insights from renowned expert Peter Wolynes of Rice University.

Explore intrinsically flexible proteins and their association mechanisms, and unravel functional mechanisms of intrinsically disordered proteins through energy landscape visualization.

Explore cutting-edge molecular biophysics research on simulating life processes and RNA structural dynamics through expert presentations at the ICTP-SAIFR symposium.

Explore thermodynamic principles governing F1-ATPase molecular motors, focusing on fluctuations and their impact on motor function and efficiency.

Explore the mechanism of KATP channels through chemical probing, focusing on structure, gating, and the role of palmitoylation in channel opening.