DNA cloning is where you take a piece of DNA and put it in a host cell so that every time the host cell replicates, its daughter cells will have that exact copy of DNA.
DNA amplification is just taking a piece of DNA and making copies of it, like in the process of PCR. it is not inside a host cell.
another way to think of it: you can amplify a gene--make a bunch of copies of it, and then clone it (by putting it in a cell and once that cell replicates each daughter cell has a copy of that DNA). you don't need to amplify anymore in cloning, you already did that before.
Eukaryotic DNA replication is more complex and occurs in the nucleus of the cell, involving multiple origins of replication and coordination with the cell cycle. Bacterial replication is simpler and occurs in the cytoplasm, often with a single origin of replication and a faster rate of replication. Eukaryotic replication also involves telomeres and histones, which are not present in bacterial replication.
RNA molecules produced by transcription are much shorter in length than DNA molecules produced by replication.
DNA polymerase I, II, and III are enzymes involved in DNA replication in prokaryotes. DNA polymerase I is responsible for removing RNA primers during DNA replication and filling the gaps with DNA nucleotides. DNA polymerase II is involved in DNA repair pathways, particularly in response to DNA damage. DNA polymerase III is the main enzyme responsible for synthesizing a new DNA strand during replication. It has a high processivity and is the primary enzyme involved in synthesizing the leading and lagging strands of DNA.
DNA replication produces a copy of the DNA. At the same time the cell in which the DNA is to be found splits into two with a copy of the DNA in each. DNA replication is caused by cell replication during the process of mitosis.
Helicase is the enzyme responsible for unwinding the double-stranded DNA molecule during DNA replication. It breaks the hydrogen bonds between the nitrogenous bases, separating the two strands and allowing for the replication process to occur.
Another answer could be that Transcription uses Uracil. This is the answer I got from Apex btw.
Eukaryotic DNA replication is more complex and occurs in the nucleus of the cell, involving multiple origins of replication and coordination with the cell cycle. Bacterial replication is simpler and occurs in the cytoplasm, often with a single origin of replication and a faster rate of replication. Eukaryotic replication also involves telomeres and histones, which are not present in bacterial replication.
RNA molecules produced by transcription are much shorter in length than DNA molecules produced by replication.
RNA molecules produced by transcription are much shorter in length than DNA molecules produced by replication.
The difference between transcription and DNA replication is that transcription uses uracil.
The junction between separated strands of DNA is called a replication fork.
In DNA replication, the 5' end refers to the end of the DNA strand where the phosphate group is attached to the 5th carbon of the sugar molecule, while the 3' end refers to the end where the hydroxyl group is attached to the 3rd carbon of the sugar molecule. This difference in orientation is important for the directionality of DNA synthesis during replication.
pol 1 - exonuclease activity pol 2 - dna repair pol 3 - primary replication enzyme
DNA replication begins in areas of DNA molecules are called origins of replication.
DNA ligase functions in DNA replication by catalyzing the formation of phosphodiester bonds between adjacent DNA fragments, sealing the gaps in the newly synthesized DNA strands. This helps to ensure the accurate and complete replication of the DNA molecule.
Helicase is an enzyme that unwinds the double-stranded DNA during replication, while polymerase is an enzyme that synthesizes new DNA strands by adding nucleotides to the template strand. In simpler terms, helicase unzips the DNA, while polymerase builds new strands.
It breaks the hydrogen bonds between the base pairs