Linked from

The 14 pages that link to Cell polarity, each with the reason it gives.

• ChemotaxisRelated: A front–rear polarity lets a migrating cell turn chemical signals into directed motion.

• BlastocystRelated: Polarized outer cells help direct the lineage distinction between trophoblast and inner cell mass.

• Epithelial–mesenchymal transitionRelated: Loss of epithelial polarity is one of the structural changes associated with EMT.

• Cell migrationRelated: Front–rear polarity lets a migrating cell direct protrusion and contraction.

• Asymmetric cell divisionRelated: Polarity positions fate determinants so daughter cells can inherit different contents.

• Endomembrane systemRelated: Directed membrane traffic helps establish distinct surfaces and regions in polarized cells.

• TrophoblastRelated: Polarity helps distinguish outer cells that adopt the trophectoderm lineage.

• Inner cell massRelated: Differences in blastomere polarity help guide early lineage allocation.

• EpitheliumRelated: Epithelial cells orient distinct apical and basal surfaces toward different environments.

• Schizosaccharomyces pombeRelated: Polarized growth determines the yeast's elongated shape and division axis.

• BlastulationRelated: Polarity helps blastomeres establish the organized surfaces needed in some blastulae.

• Acinar cellsRelated: Acinar cell polarity separates product synthesis from release into the lumen.

• DesmidialesRelated: Polarity helps explain how desmid semicells grow and retain their characteristic form.

• Parenchymal tissue (animal organs)Related: Polarized epithelial parenchymal cells direct transport and secretion toward specific compartments.