
Explore cell organelles' structures and functions, from nucleus to mitochondria. Gain in-depth understanding of cellular components and their roles in energy production, protein synthesis, and overall cell function.

Comprehensive exploration of hemolytic anemia, covering causes, symptoms, and consequences. Explains intravascular and extravascular hemolysis, classification, and potential complications like gallstones and pulmonary hypertension.

Explore novel treatments targeting epithelial-mesenchymal transition to combat drug resistance and metastasis in cancer, focusing on recent developments and therapeutic potential.

Explore the reduction of a 2D continuum model for cell motility to an active curve dynamics, focusing on lamellipodium mechanics and actin network behavior.

Explore the unique mechanical properties of axonal structures, including their viscoelastic responses, contractility, and growth patterns within neuronal cells and their biological significance.

Explore the intricate world of cellular architecture, focusing on microfilaments, intermediate filaments, and microtubules. Gain insights into their crucial roles in maintaining cell structure and function.

Explore cellular dynamics, symmetry breaking, and active processes in living systems. Discover how energy-driven mechanisms shape biological patterns and morphologies at cellular and tissue levels.

Explore hydrodynamic theories in biology, focusing on pattern formation in active fluids and the actomyosin cortex. Learn about conservation laws, chemical reactions, and force balance in biological systems.

Explore biological pattern formation through nonequilibrium physics, from snake pigmentation to tissue development. Discover emergence, hydrodynamics, and reaction-diffusion models in this comprehensive lecture on complex biological systems.

Comprehensive review of eukaryotic cell structures, including nucleus, cytoplasm, organelles, and their functions. Includes quiz for self-assessment and reinforcement of key concepts in microbiology.

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

Explore cell contractility mechanisms and their impact on cellular adhesion and behavior. Gain insights into advanced biophysical concepts and research findings.

Explore advanced concepts of cell contractility, focusing on adherent cells and their mechanical properties in biological systems.

Explore active contractility in adherent cells, focusing on key concepts and their implications for cellular mechanics and behavior.

Explore the dynamic world of adherent cells, focusing on active and adaptive matter in this comprehensive lecture by M. Gardel at the BSS Physics School.

Explore out-of-equilibrium dynamics and organization of active filaments in this advanced physics lecture by K. Wan, part of the BSS Physics School series.

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.