
Exploring intracellular phase transitions and their role in organizing cellular contents, with focus on liquid-liquid phase separation and new approaches for spatiotemporal control.

Explore the molecular basis of scent and perfumery with biophysicist Luca Turin. Discover how vibrations of molecules create distinct odors and learn about the artistry behind crafting sublime fragrances.

Explore the intersection of psychedelics, free will, and consciousness. Discover how serotonergic pathways may influence volitional capacities and adaptive flexibility in human cognition and behavior.

Explore collective cell motion in tissues, examining topology-preserving and breaking components, and their implications for wound healing, embryogenesis, and cancer metastasis.

Explore the fascinating mechanics of hearing as biophysicist Jim Hudspeth reveals the power of hair cells and the unique spectrum of sounds your ears emit in quiet environments.

Dive into the Nobel Prize-winning Hodgkin-Huxley model to understand how neurons generate electrical signals, exploring membrane voltage, ion channels, and the biophysical principles of neural computation.

Explore integrative methods for characterizing disordered proteins, focusing on amyloid-β and its interaction with small molecules to prevent toxic aggregation in Alzheimer's disease.

Explore conformations of intrinsically disordered proteins, delving into their unique structural characteristics and functional implications in biological systems.

Explore lipid packing and solute permeability in model protocells, gaining insights into early cell membrane formation and potential implications for astrobiology research.

Explore cell motility in confluent tissues and the impact of substrate disorder on tissue mechanics, rigidity, and cell dynamics using the Self-Propelled Voronoi model.

Explore chromatin dynamics using Gaussian Network Model and Hi-C data. Gain insights into gene co-expression, transcriptional regulation, and cell differentiation through 4D genome analysis.

Explore nucleosome structural transitions and their energy scales, drawing parallels with hydrogen atom energy levels. Examine pH effects on nucleosome stability and biological implications.

Explore how microtubules and molecular motors self-organize into polarity-sorted domains, creating ordered structures in living cells through selective transport mechanisms.

Explore cell shape variability in epithelial monolayers, its universal distribution, origins, and implications for tissue dynamics and biological functions.

Explore statistical mechanics principles applied to gene-regulatory networks, examining their complex interactions and regulatory mechanisms through a physics-based analytical framework.

Explore MINFLUX, a groundbreaking light microscopy technique achieving nanometer-scale precision in superresolution imaging and single-molecule tracking, revolutionizing cellular observations.

Explore physical constraints on viral entry evolution with Dr. Peter Kasson. Gain insights into membrane dynamics, fusion mechanisms, and pandemic prediction through experimental and computational approaches.

Explore protein-like molecule folding with Prof. Michael Shirts, uncovering insights into building and understanding complex molecular structures.

Explore force spectroscopy's insights into nucleosome structure and dynamics, revealing chromatin's complex behavior at the molecular level.

Explore surface segregation physics in polymers and its applications to biophysical processes like chromatin organization and cellular behavior.

Explore asymmetric sister chromatid cohesion in this workshop talk, integrating mathematics, physics, and computation for biological and medical advances.