
Explore cell biology essentials: migration, death mechanisms, regeneration, and aging processes. Gain insights into cellular functions crucial for medical exams and understanding human physiology.

Explore a deterministic model of single-cell migration using fluid dynamics and molecular interactions. Analyze static and motile behaviors through mathematical and numerical approaches.

Explore mathematical modeling of microtubule-targeted agents in cancer cell migration. Gain insights into anti-migratory effects and potential therapeutic applications through fluid-based simulations.

Explore how varying turning rates in kinetic transport equations model cell movement in heterogeneous environments, leading to persistent migration and enhanced diffusion.

Explore how cell size impacts embryonic development in zebrafish, revealing the crucial role of optimal cell dimensions in shaping vertebrate embryos through migration and membrane dynamics.

Explore the life and groundbreaking discoveries of Nicole Le Douarin, a pioneering French developmental biologist, through an in-depth archival interview by the Society for Neuroscience.

Explore the biophysical mechanisms driving cancer invasion, examining cellular processes and interactions that contribute to tumor progression and metastasis.

Explore mathematical modeling of glioblastoma tumor growth, focusing on traveling wave speed and profile in a "go or grow" framework for advanced cancer research.

Explore innate immune cells and the process of leukocyte rolling adhesion, including macrophages, neutrophils, basophils, and natural killer cells.

Explore cell migration through excitable systems theory. Discover how spontaneous and directed cell movement can be explained using a comprehensive model based on wave propagation and molecular regulators.

Explore 3D cell migration using microfluidic endothelium-on-a-chip models. Learn about immune cell extravasation, vascular inflammation, and tumor infiltration in advanced in vitro systems.

Explore 3D genome structure changes in cells under physical stress, examining constricted migration and nuclear expansion effects on chromosome organization and gene expression.

Explore tools for agent-based modeling in developmental biology using Julia, including SpatialHashTables.jl, BoundedDegreeGraphs.jl, and AgentTools.jl. Learn about Position-Based Dynamics for particle simulations.

Explore advanced concepts in collective cell migration, focusing on theoretical models and experimental observations in tissue dynamics.

Explore collective cell migration mechanisms and dynamics in this comprehensive lecture by E. Hannezo, delving into cutting-edge research and theoretical frameworks.

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

Explore the mathematical modeling of cancer invasion and metastasis through advanced mathematical oncology concepts, focusing on tumor spread patterns and biological mechanisms.