When a cell divides by way of mitosis, it produces two clones of itself, each with the same number of chromosomes. When a cell divides by way of meiosis, it produces four cells, called gametes. Gametes are more commonly called sperm in males and eggs in females.

Mitosis results in two identical daughter cells, whereas meiosis results in four sex cells.

At the end of mitosis, the two daughter cells will be exact copies of the original cell. Each daughter cell will have 30 chromosomes. At the end of meiosis II, each cell (i.e., gamete) would have half the original number of chromosomes, that is, 15 chromosomes.

Mitosis creates two identical daughter cells that each contain the same number of chromosomes as their parent cell. In contrast, meiosis gives rise to four unique daughter cells, each of which has half the number of chromosomes as the parent cell.

Daughter cells are the cells that are produced as a result of the division, meiosis produces genetically different cells however mitosis produces genetic clones. Meiosis includes two divisions and therefore produces four daughter cells, mitosis involves one division and produces two daughter cells.

In mitosis a cell divides to form two identical daughter cells. They then coil up, and each chromosome looks like a letter X in the nucleus of the cell. The chromosomes now consist of two sister chromatids. Mitosis separates these chromatids, so that each new cell has a copy of every chromosome.

The cells of the skin and bone marrow are sites of active mitosis replacing skin cells and red blood cells that only have a limited life. Repair. When an area of tissue is damaged internally or externally, mitosis is used to repair the damage.

What is another word for mitosis?

When cytokinesis finishes, we end up with two new cells, each with a complete set of chromosomes identical to those of the mother cell. The daughter cells can now begin their own cellular “lives,” and – depending on what they decide to be when they grow up – may undergo mitosis themselves, repeating the cycle.

Thus, cytokinesis can be considered to occur in four stages—initiation, contraction, membrane insertion, and completion. The central problem for a cell undergoing cytokinesis is to ensure that it occurs at the right time and in the right place.

five phases

Cytokinesis is the final step in cell division. As a highly regulated, complex process, it is not surprising that cytokinesis can sometimes fail. Cytokinesis failure leads to both centrosome amplification and production of tetraploid cells, which may set the stage for the development of tumor cells.

The required answer is Cell becomes Coenocytic.

If cytokinesis does not follow karyokinesis, it will lead to the formation of syncytium.

Animal cell cytokinesis begins shortly after the onset of sister chromatid separation in the anaphase of mitosis. The process can be divided to the following distinct steps: anaphase spindle reorganization, division plane specification, actin-myosin ring assembly and contraction, and abscission.

For example, spermatogenesis, a meiosis cell division process is symmetrical cytokinesis where the newly formed sperm cells are equal in size and content, while biogenesis is a typical example of asymmetrical cytokinesis, producing a large cell and 3 polar bodies.

Why is Cytokinesis So Important? The importance of cytokinesis should be obvious by now, as it is the final step in replicating both animal and plant cells. Without this key step—and its precise execution—organisms wouldn’t be able to grow in size and complexity.

In the term Cytokinesis: cytos means cell and kinesis mean division so, together it is called cell division. The cytokinesis is of two types, one that occurs in the plant cell is cell plate formation and the other in the animal cell is embryonic cleavage.

Cytokinesis in animal cells is more complex than in plant cells. The furrow grows deeper between the two cells until they pinch off and separate from one another, resulting in two separate daughter cells.

Daughter cell. One of the two or more cells formed in the division of a parent cell.