Linked from

The 20 pages that link to Wnt signaling pathway, each with the reason it gives.

• Bone remodelingRelated: Wnt signaling helps govern osteoblast production and activity.

• Stem cellRelated: Wnt signals help maintain or direct stem-cell fate in several tissues.

• OsteoblastRelated: Wnt signaling promotes osteoblast differentiation and supports bone formation.

• Androgenetic alopeciaRelated: Its role in follicle cycling is under study as a possible contributor to miniaturization.

• Embryonic stem cellRelated: Wnt signals can help regulate pluripotency and lineage decisions in culture.

• Hepatocellular carcinomaRelated: Alterations in Wnt signaling can promote growth in hepatocellular carcinoma.

• Hair growth cycleRelated: Wnt signals participate in activating follicles to enter a new growth phase.

• MesodermRelated: Wnt signals cooperate with other cues to establish mesodermal fates.

• SyndactylyRelated: WNT signals participate in the developmental processes that separate digits.

• BilateriaRelated: Wnt signals help establish and pattern body axes across diverse bilaterians.

• Glucocorticoid-induced osteoporosisRelated: Glucocorticoids suppress Wnt signals that normally support bone-forming cells.

• Regeneration (biology)Related: Wnt activity can control wound responses and the formation of regenerative outgrowths.

• Limb developmentRelated: WNT signals help initiate limb formation and shape signaling centers in the bud.

• Hair growthRelated: Wnt signals help activate follicle stem cells and initiate new growth.

• Familial adenomatous polyposisRelated: Loss of APC disrupts this pathway and promotes growth of intestinal cells.

• Wilms tumorRelated: WNT pathway changes, including CTNNB1 mutations, occur in a subset of tumors.

• MedulloblastomaRelated: Abnormal WNT signaling defines one major medulloblastoma subgroup.

• Tetra-amelia syndromeRelated: WNT3 acts in this pathway, which contributes to embryonic patterning.