It depends on the type of cell. In ordinary somatic (body) cells it is the same as the parent cell. In sex cells it is half the number. Many animals and plants have numbers of chromosomes that are different from human cells numbers.
Each daughter cell will contain the same number of chromatids as the original cell at the start of mitosis. This means that each daughter cell will have half the number of chromatids compared to the original parent cell at the beginning of cytokinesis.
haploid and the chromosomes are composed of two chromatids
Chromatids are found in the nucleus of a cell during the late stages of the cell cycle, specifically during mitosis and meiosis. They are duplicated copies of a chromosome connected by a centromere, and each chromatid contains genetic material that will eventually be divided and passed on to daughter cells.
Anaphase is the phase in mitosis where individual chromatids separate from their duplicated pairs and move to opposite ends of the cell. This ensures that each daughter cell will receive a complete set of chromosomes.
In mitosis, chromatids line up in the middle of the cell during metaphase. This alignment ensures that, during anaphase, the chromatids can be separated and pulled to opposite poles of the cell, ensuring each daughter cell receives an identical set of chromosomes.
Each daughter cell will contain the same number of chromatids as the original cell at the start of mitosis. This means that each daughter cell will have half the number of chromatids compared to the original parent cell at the beginning of cytokinesis.
haploid and the chromosomes are composed of two chromatids
Chromatids are found in the nucleus of a cell during the late stages of the cell cycle, specifically during mitosis and meiosis. They are duplicated copies of a chromosome connected by a centromere, and each chromatid contains genetic material that will eventually be divided and passed on to daughter cells.
Each chromosome consists of two sister chromatids, which are identical copies of the chromosome connected at a region called the centromere. During cell division, the sister chromatids separate and each is passed on to a daughter cell.
During cell division, at the end of meiosis I, homologous chromosomes are separated and each daughter cell receives one chromosome from each pair. Then in meiosis II, the sister chromatids of each chromosome are separated, resulting in two daughter cells each receiving one chromatid. This ensures that each daughter cell has a complete set of two chromosomes.
It depends on the cell. If the cell is a non sex cell, the daughter cell has 46 chromosomes, if it a human cell. If it is a gamete, it has 23, half the number of the parent cell. This is in a human as well.
the phase of mitosis where chromatids separate is called anaphase. when the chromatids separate, they are no longer called chromatids, but are called chromosomes again. The goal of mitosis is to assure that one copy of each sister chromatid - and only one copy - goes to each daughter cell after cell division.
Chromatids are separated during cell division by a structure called the mitotic spindle, which attaches to the centromere of each sister chromatid. The spindle fibers then pull the sister chromatids apart towards opposite poles of the cell, ensuring that each daughter cell receives the correct number of chromosomes.
Anaphase is the phase in mitosis where individual chromatids separate from their duplicated pairs and move to opposite ends of the cell. This ensures that each daughter cell will receive a complete set of chromosomes.
In mitosis, chromatids line up in the middle of the cell during metaphase. This alignment ensures that, during anaphase, the chromatids can be separated and pulled to opposite poles of the cell, ensuring each daughter cell receives an identical set of chromosomes.
46 chromosomes will be found in a human daughter cell after mitosis, 23 chromosomes will be found after meiosis.
Chromatids pull apart during the anaphase stage of mitosis. This is when the sister chromatids are separated and move towards opposite poles of the cell, eventually becoming individual chromosomes in each daughter cell.