because the state inhibits it.
A nerve cell is likely to not continue to divide.
Nerve cells typically do not continue to divide once they are fully formed. Unlike skin cells and epithelial cells that undergo continuous division for repair and maintenance, nerve cells have limited regenerative capacity. Once nerve cells are damaged or lost, they are not easily replaced, which contributes to the challenges of nerve regeneration in the body.
No, nerve cells do not typically divide once they have fully developed.
B Nerve cell is the least likely to continue dividing as most nerve cells are mature and do not undergo cell division once they have differentiated to perform their specific function. On the other hand, skin cells, epithelial cells lining the cheek, and many other types of cells continue to undergo mitosis to replace damaged or lost cells.
Liver cells divide about once a year, and neurons (nerve cells) never divide once we are born (and when they are mature).
Just once, after it divides into a million cells it will get bigger.
That's correct. Nerve cells, for example, typically do not divide or repair themselves once they are damaged. This lack of division contributes to the challenges in regenerating nerve tissue after injury.
no once its full they stop unless they are cancerous
Brain cell do not divide in later life. Cardiac muscle divides itself less than 1% each year in humans.
Once the egg is fertilized, it begins to divide and develop into an embryo. The embryo will then implant itself into the lining of the uterus and continue to grow. Eventually, it will develop into a fetus and continue to mature until birth.
Because those cells lack the ability to divide. Once nerve cells specialize from stem cells, they lose the ability to go through mitosis
Mature neurons and cardiac muscle cells are examples of cells that typically do not divide once fully grown. Neurons, which make up the nervous system, enter a post-mitotic state where they largely cease to divide, while cardiac muscle cells also lose their ability to undergo mitosis after differentiation. This limited regenerative capacity is significant for their respective functions in transmitting signals and sustaining heart contractions.