A mutation
DNA (a.k.a. Deoxyribonucleic acid) The strand itself is called chromatin. It is made up of DNA.
The lagging stand~Brainly
CCAATTG
replicated DNA is made of one old strand and one new strand.
When a complementary strand and a coding strand are combined in a test tube the result is a recombinant DNA strand.
Chromatin. The proteins are histones, used to organize and compact the DNA.
This is typically called the template DNA, which is the anti-sense strand of DNA. The strand that is not transcribed is called the sense strand.
Every strand of DNA has a different code made out of atcg
A single strand of DNA used for DNA testing is called PCR
DNA (a.k.a. Deoxyribonucleic acid) The strand itself is called chromatin. It is made up of DNA.
CCAATTG
The lagging stand~Brainly
This is called a "mutation." What ends up happening depends on where the base that changed was located. If the changed base is on the side of the DNA strand that is not used in making mRNA, there will be no difference in the final protein made whatsoever. If the mutation occurs in a part of the DNA that is not coded to make a protein (so called "junk" DNA), there will also be no change in the final protein, because there won't be a protein made. Even if the mutation occurs in a segment of DNA that eventually makes a protein, if the replacement base causes the mRNA to code for an amino acid that is similar to the original base, there will be little change. There is more to it, but that will probably suffice.
replicated DNA is made of one old strand and one new strand.
This Process Is Called DNA Transcription. *Apex*
semiconservative replication - original DNA double strand will unwind into 2 strands, so one original strand will serve as a template for synthesizing a new complementary strand , thus forming a new DNA (one with old strand and one with a new strand)
This is called a "mutation." What ends up happening depends on where the base that changed was located. If the changed base is on the side of the DNA strand that is not used in making mRNA, there will be no difference in the final protein made whatsoever. If the mutation occurs in a part of the DNA that is not coded to make a protein (so called "junk" DNA), there will also be no change in the final protein, because there won't be a protein made. Even if the mutation occurs in a segment of DNA that eventually makes a protein, if the replacement base causes the mRNA to code for an amino acid that is similar to the original base, there will be little change. There is more to it, but that will probably suffice.