
Explore out-of-equilibrium dynamics and organization of active filaments in this advanced physics lecture by K. Wan.

Explore out-of-equilibrium dynamics and organization of active filaments in this comprehensive lecture by K. Wan at the BSS Physics School.

Explore mechanical transitions in cellular and tissue systems, focusing on advanced concepts and recent research developments.

Explore mechanical transitions in cells and tissues, delving into advanced concepts and their applications in biological systems.

Explore mechanical transitions in cells and tissues, focusing on key concepts and their applications in biological systems.

Explore advanced concepts of biomolecular condensates, focusing on their formation, properties, and biological significance in cellular processes.

Explore computational modeling techniques for understanding cell migration and chemotaxis, enhancing knowledge of cellular movement mechanisms.

Explore groundbreaking research on insulin-mediated molecular mechanisms and mitochondrial dynamics with Dr. Antentor Hinton, Jr., a leading expert in molecular physiology and biophysics.

Explore the physics of highly crosslinked cytoskeletal networks in this graduate-level lecture, delving into non-equilibrium processes in physics and biology.

Explore active nematics and mechanobiology in this comprehensive lecture, delving into non-equilibrium processes in physics and biology.

Explore active matter models for multicellular tissue dynamics, examining non-equilibrium processes in physics and biology.

Explore advanced trajectory inference methods using Wasserstein geometry and B-spline approximation for analyzing dynamic processes in computational biology and point cloud data.

Explore the physical mechanisms behind cancer-associated fibroblasts and their role in T-cell exclusion within lung tumors through mathematical and biological perspectives.

Explore mathematical modeling approaches for T cell activation, examining the trade-offs between model interpretability and accuracy in immunological systems.

Explore how extreme statistics influence cellular behavior and decision-making processes, focusing on mathematical approaches in biological signaling systems.

Explore groundbreaking research on nuclear mechanotransduction, examining how mechanical forces trigger rapid genomic changes and gene activation through advanced sequencing techniques and cellular observations.

Explore groundbreaking research on how chronic stress affects tumor growth and spread, focusing on immune system changes and their role in cancer progression.

Discover how scPRINT, a large cell model pre-trained on 50M+ cells, revolutionizes gene network inference while offering powerful capabilities in denoising, batch correction, and cell prediction.

Explore the microscopic origins of mechanical states in colloidal suspensions and active gels, examining stress distribution patterns and dynamic phase transitions under external stimuli.

Explore pattern formation across biological scales, from subcellular structures to multicellular systems, examining the integration and emergence of complex biological organization.

Discover how gene expression measurement techniques in cells contribute to understanding and enhancing T-cell based cancer immunotherapy approaches through advanced sequencing technologies.