Multiple growth factors are known to control several aspects of neuronal biology, consecutively acting as morphogens to diversify neuronal fates, as guidance cues for axonal growth, and as modulators of survival or death to regulate neuronal numbers.
Although IGFs drive specific intracellular signalling pathways that are involved with epithelial cell proliferation and survival, their ability to regulate the cell phenotype is dependent on crosstalk with other molecules within the mammary gland.
HSP90A appears to regulate survival differentially depending on the cellular levels of its protein product HSP90α, the presence of survival factors and the status of cellular transformation.
cIAP1/2 also inhibits TNF-α signaling by polyubiquitination of NIK and activates JNK and p38MAPK [ 222, 223] to regulate survival, apoptosis, inflammation, and proliferation, which is covered in greater detail in the context of the ASK1 survival pathway (Section 3.4).
Different PIPs are generated by growth factor molecules such as IGF1, PDFG, and EGF to propagate signals to regulate survival and govern changes in cellular morphology.
This defect reduces the worm's ability to respond to the insulin hormone, and the gene is known to regulate survival, resistance to stress and the maintenance of motility in the worms.
ILK helps to regulate survival and migration of cells, but it is unknown how stiffness and hypoxia may change the activity of ILK to help drive the dispersal of cancer cells to other parts of the body.
Taking advantage of the conditional knockout mouse model, we show here that endogenous oxytocin signaling functions in a non-cell autonomous manner to regulate survival and maturation of newly generated dentate granule cells in adult mouse hippocampus via oxytocin receptors expressed in CA3 pyramidal neurons.
In this way, the ability of KLK6 to regulate survival of T and B cells would be sharply tuned by differential expression of receptors activated by KLK6 in response to changing environmental cues.
Thus, the ErbB2 oncogene exploits the PAR aPKC system to regulate survival of the ErbB2-transformed cells.
