After Cell-Division these are called Daughter Cells.
The colony would have less genetic variation. The Bacteria in the colony would be too genetically similar
Sheep C would be the most genetically similar to sheep D, as they both share a common ancestor more recently compared to sheep A and B. This implies that sheep C and D would have a higher level of genetic relatedness.
Monkey cells are eukaryotic cells, similar to human cells, with a nucleus and other organelles enclosed within a membrane. These cells are commonly used in research as a model system for studying various aspects of biology, including cell signaling, genetics, and disease mechanisms.
The genetic changes made to bone marrow cells would not be passed on to the patient's children because the alterations occur in the patient's somatic cells, not the germline cells responsible for passing on genetic information to offspring. The modifications made to bone marrow cells would not be present in the patient's reproductive cells.
No - mitosis results in two genetically identical diploid cells.Meiosis creates four haploid cells.
the bacteria would be more genetically similar.
The colony would have less genetic variation. The Bacteria in the colony would be too genetically similar
Using genetically similar mice will help have a constant result in the experiment. Using non-genetically similar mice will give you different results leading to a false answer. And if you looked up the same question as I then there is a part about cloning mice and why that would be better. It would be better because then you KNOW that you will get the same answer all around.
Sheep C would be the most genetically similar to sheep D, as they both share a common ancestor more recently compared to sheep A and B. This implies that sheep C and D would have a higher level of genetic relatedness.
The bacteria in the colony would be too genetically similar.
Both daughter cells would have 52 chromosomes, and would be genetically identical to each other and the parent cell.
Monkey cells are eukaryotic cells, similar to human cells, with a nucleus and other organelles enclosed within a membrane. These cells are commonly used in research as a model system for studying various aspects of biology, including cell signaling, genetics, and disease mechanisms.
Because way back, they both had a common ancestor.
First and foremost, there is currently no known research anywhere in the world with the purpose of growing genetically engineered humans. There are discussions about the benefits of such technology, as this would allow us to eradicate genetically inherited diseases such as cystic fibrosis and haemophilia. Genetically engineered human embryos could be used for research to understand how and why defects occur during development of a baby in the womb. Theoretically, it could allow modifying most biological traits of the human body. Some people consider this an advantage, but across the world it is most commonly considered unacceptable and/or undesirable. Genetically engineered human cells (as opposed to entire humans) are already in use to treat severe genetic blood diseases. For this purpose, haemopoietic stem cells are taken from the patient's bone marrow. They are then genetically modified to correct the mutations that cause the blood disease. Finally, the patient's bone marrow is eradicated and the treated haemopoietic stem cells are injected. These stem cells then restore the bone marrow to a healthy state. Similar technologies are being developed to cure other organ-specific genetic defects.
The cells produced during mitosis are genetically identical to the original parent cell. They have the same number of chromosomes and carry the same genetic information. This ensures that each new cell has the ability to function and replicate like the original parent cell.
Ok so if you were asking this question well i would say the cells divide into equally developed cells. ok thanks for your time :) signed, Elisabeth
The genetic changes made to bone marrow cells would not be passed on to the patient's children because the alterations occur in the patient's somatic cells, not the germline cells responsible for passing on genetic information to offspring. The modifications made to bone marrow cells would not be present in the patient's reproductive cells.