# data[].attributes.body
Mitosis involves a cell copying its chromosomes, lining them up in the middle, pulling the copies apart, and then splitting into two identical daughter cells, with the essential steps being prophase (chromosome condensing), metaphase (lining up), anaphase (pulling apart), telophase (forming new nuclei), and cytokinesis (dividing the cell cytoplasm)

# data[].attributes.body
Meiosis is like a cell division process happening in two steps: in the first step (meiosis I), pairs of similar chromosomes separate from each other, and in the second step (meiosis II), the individual "copies" of each chromosome separate, resulting in four utterly different daughter cells with half the number of chromosomes as the original cell, thanks to a process called "crossing over" that happens during the early stages of meiosis I, creating genetic diversity.

# data[].attributes.body
Meiosis is a particular type of cell division that creates four completely different daughter cells, each with half the genetic material of the parent cell, while mitosis makes two identical daughter cells with a complete set of DNA; this difference happens because, in meiosis, chromosomes pair up and swap pieces, leading to diverse offspring in sexual reproduction.

# data[].attributes.body
The critical difference lies in the number of cell divisions involved and the presence of genetic recombination during meiosis, which does not occur in mitosis.

# data[].attributes.body
When making sperm and egg cells, chromosomes mix up their genes in two key ways: by swapping pieces with each other ("crossing over") and by lining up randomly ("random alignment"), which means different genes from different chromosomes get passed on independently, leading to a wide variety of possible genetic combinations in the offspring, just like Mendel's Law of Independent Assortment explains.

# data[].attributes.body
When cells divide during meiosis, the chromosomes from each pair line up randomly, meaning they can go to either side of the cell, which is like shuffling a deck of cards; this random sorting, called "independent assortment," results in different combinations of genes in the offspring, explaining why siblings aren't identical, just like how different hands of cards can be dealt from the same deck, and this directly relates to Mendel's Law of Independent Assortment which describes this random distribution of genes during reproduction.