Epithelial cells are the most common cell type in all animals, forming the sheets and tubes
that compose most organs and tissues. Apical–basal polarity is essential for epithelial cell …

Microtubules are polarized cytoskeletal filaments that serve as tracks for intracellular
transport and form a scaffold that positions organelles and other cellular components and …

The cytoskeleton and its components—actin, microtubules and intermediate filaments—
have been studied for decades, and multiple roles of the individual cytoskeletal …

The process of cellular differentiation requires the distinct spatial organization of the
microtubule cytoskeleton, the arrangement of which is specific to cell type. Microtubule …

Over the past several decades, numerous studies have greatly expanded our knowledge
about how microtubule organization and dynamics are controlled in cultured cells in vitro …

The organization of microtubule networks is crucial for controlling chromosome segregation
during cell division, for positioning and transport of different organelles, and for cell polarity …

Eukaryotic cells face the challenging task of transporting a variety of particles through the
complex intracellular milieu in order to deliver, distribute, and mix the many components that …

Membrane trafficking plays a crucial role in cell polarity by directing lipids and proteins to
specific subcellular locations in the cell and sustaining a polarized state. The Golgi …

Microtubules control cell architecture by serving as a scaffold for intracellular transport,
signaling, and organelle positioning. Microtubules are intrinsically polarized, and their …

Microtubules are core components of the cytoskeleton and serve as tracks for motor protein–
based intracellular transport. Microtubule networks are highly diverse across different cell …