Spindle Position in Symmetric Cell Divisions during Epiboly Is Biology Diagrams

Spindle Position in Symmetric Cell Divisions during Epiboly Is Biology Diagrams Summary Proper spatial control of the cell division plane is essential to any developing organism. In most cell types, the relative size of the two daughter cells is determined by the position of the mitotic spindle within the geometry of the mother cell. We review the underlying mechanisms responsible for positioning of the mitotic spindle, both in cases where the spindle is placed in the The direction in which a cell divides is determined by the orientation of its mitotic spindle at metaphase. Spindle orientation is therefore important for a wide range of developmental processes, ranging from germline stem cell division to epithelial tissue homeostasis and regeneration. In multiple cell types in multiple animals, spindle orientation is controlled by a conserved biological The spindle positioning checkpoint (SPOC) ensures the correct positioning of the mitotic spindle during cell division. Proper spindle alignment is crucial for successful mitotic exit and cytokinesis, as it determines the plane of cell division and ensures that sister chromatids are accurately segregated to daughter cells [34], [5].

The cell division axis is determined by the position of the mitotic spindle. How geometrical cues influence spindle orientation is analysed in cells cultured on micropatterns. These experiments

Spindle orientation: a question of complex positioning Biology Diagrams

Proper spatial control of the cell division plane is essential to any developing organism. In most cell types, the relative size of the two daughter cells is determined by the position of the mitotic spindle within the geometry of the mother cell. We review the underlying mechanisms responsible for positioning of the mitotic spindle, both in cases where the spindle is placed in the center of

Abstract The mechanical environment of a cell has a profound effect on its behaviour, from dictating cell shape to driving the transcription of specific genes. Recent studies have demonstrated that mechanical forces play a key role in orienting the mitotic spindle, and therefore cell division, in both single cells and tissues.

The spatiotemporal distribution of LIN Biology Diagrams

Abstract Accurate positioning of spindles is essential for asymmetric mitotic and meiotic cell divisions that are crucial for animal development and oocyte maturation, respectively. The predominant model for spindle positioning, termed "cortical pulling," involves attachment of the microtubule-based motor cytoplasmic dynein to the cortex, where it exerts a pulling force on microtubules that The orientation of cell divisions regulates tissue architecture and cell fate and depends on mitotic spindle positioning, which is controlled by intracellular and extracellular cues. Building on Abstract Accurate positioning of spindles is essential for asymmetric mitotic and meiotic cell divisions that are crucial for animal development and oocyte maturation, respectively. The predominant model for spindle positioning, termed "cortical pulling," involves attachment of the microtubule-based motor cytoplasmic dynein to the cortex, where it exerts a pulling force on microtubules