
Explore the complex dynamics of retinal waves, uncovering their non-linear behavior and implications for visual system development.

Explore determinants of selection responses in antibody libraries, focusing on key parameters and their impact on library evolution and optimization.

Explore protein physics and population genetics to grasp evolution's multifaceted nature and combat drug resistance through integrated computational approaches.

Explore physical constraints on epistasis in biological systems, examining how interactions between genes influence evolutionary outcomes and phenotypic expression.

Explore bottom-up approaches to constructing microbial communities, examining assembly processes and interactions that shape complex ecosystems.

Explore molecular evolution control mechanisms and their impact on genetic diversity and adaptation in populations.

Explore how integrated phenotypic networks give rise to simple fitness landscapes, reconciling long-term trajectories and mutant fitness data.

Explore protein coevolution models, examining sampling techniques, physical principles, and evolutionary dynamics in molecular biology.

Explore protein dynamics and spectroscopy with PigmentHunter, a user-friendly nanoHUB tool for simulating excitonic spectra of chlorophyll proteins. Learn its interface, workflow, and applications in molecular dynamics and spectral analysis.

Explore the fascinating world of bacterial flagella, nature's electric rotating motor. Discover groundbreaking research on this microscopic marvel and its implications for science and technology.

Explore the interplay of physical forces and genetic regulation in morphogenesis, focusing on how mechanical self-organization transforms gene expression into tissue shape.

Explore photochemistry in proteins through QM/MM studies on Rhodopsins, uncovering molecular mechanisms and protein-chromophore interactions.

Explore theoretical foundations of active matter through ideal microscopic models, gaining insights into complex systems and their behaviors.

Explore active nematics and mechanobiology with Julia M Yeomans, delving into cutting-edge research on active matter and its applications in biological systems.

Explore theoretical foundations of active matter through ideal microscopic models, gaining insights into complex systems and their behaviors.

Explore optimal strategies for maximizing diffusivity in intermittent active motion across scales, from bacteria to sheep and artificial colloidal systems.

Explore Fokker-Planck-Inverse Reinforcement Learning for revealing agent behavior rationale. Learn about a novel physics-aware algorithm inferring transition and reward functions from observed trajectories.

Explore active nematics and mechanobiology with Julia M Yeomans, delving into cutting-edge research in active matter physics and its biological applications.

Explore advanced techniques for accelerating atomistic simulations, enhancing sampling methods, and optimizing dynamics in drug discovery research.

Explore coarse-grained biological systems in drug discovery with Jacopo Venturin, delving into advanced machine learning applications for pharmaceutical research.

Explore computational methods revealing CRISPR-Cas9 dynamics and mechanisms, from RNA binding to large-scale conformational changes, enhancing understanding of this revolutionary genome-editing tool.