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Meiosis I: Telophase
As in mitosis, the nuclear envelope reforms during telophase. The resultant nuclei contain one replicated chromosome of each homologous pair; sister chromatids remain attached. This separation of a homologous pair reduces the number of chromosomes in daughter cells from 2N (diploid) to 1N (haploid). Therefore, meiosis I is called the reductional division.
![Chromsomes <p>As in mitosis, the nuclear envelope reforms during telophase. The resultant nuclei contain one replicated chromosome of each homologous pair; sister chromatids remain attached. This separation of a homologous pair reduces the number of chromosomes in daughter cells from 2N (diploid) to 1N (haploid). Therefore, meiosis I is called the reductional division.</p>](https://digitalhistology.org/wp-content/uploads/2017/05/C.CD_.Mei-6-1-ping.png)
Chromsomes
As in mitosis, the nuclear envelope reforms during telophase. The resultant nuclei contain one replicated chromosome of each homologous pair; sister chromatids remain attached. This separation of a homologous pair reduces the number of chromosomes in daughter cells from 2N (diploid) to 1N (haploid). Therefore, meiosis I is called the reductional division.
![Nuclear envelopes <p>As in mitosis, the nuclear envelope reforms during telophase. The resultant nuclei contain one replicated chromosome of each homologous pair; sister chromatids remain attached. This separation of a homologous pair reduces the number of chromosomes in daughter cells from 2N (diploid) to 1N (haploid). Therefore, meiosis I is called the reductional division.</p>](https://digitalhistology.org/wp-content/uploads/2017/05/C.CD_.Mei-6-2-ping.png)
Nuclear envelopes
As in mitosis, the nuclear envelope reforms during telophase. The resultant nuclei contain one replicated chromosome of each homologous pair; sister chromatids remain attached. This separation of a homologous pair reduces the number of chromosomes in daughter cells from 2N (diploid) to 1N (haploid). Therefore, meiosis I is called the reductional division.
![Cleavage furrow > <p>The cleavage furrow, marking the eventual separation site of the daughter cells, is formed by a contractile ring composed of actin and myosin filaments. Interaction between the filaments tightens the ring and eventually pinches the cell into two daughter cells.</p>](https://digitalhistology.org/wp-content/uploads/2017/05/C.CD_.Mei-6-3-ping.png)
Cleavage furrow >
The cleavage furrow, marking the eventual separation site of the daughter cells, is formed by a contractile ring composed of actin and myosin filaments. Interaction between the filaments tightens the ring and eventually pinches the cell into two daughter cells.
![Contractile ring <p>The cleavage furrow, marking the eventual separation site of the daughter cells, is formed by a contractile ring composed of actin and myosin filaments. Interaction between the filaments tightens the ring and eventually pinches the cell into two daughter cells.</p>](https://digitalhistology.org/wp-content/uploads/2017/05/C.CD_.Mei-6-4-ping.png)
Contractile ring
The cleavage furrow, marking the eventual separation site of the daughter cells, is formed by a contractile ring composed of actin and myosin filaments. Interaction between the filaments tightens the ring and eventually pinches the cell into two daughter cells.