The proper sequencing allows for the DNA to be copied properly. If there were to be a mutation, and the sequences were out of order the mutation would cause trouble within the cells and will create a corrupt system. So the sequencing is very important to accurate genes.
Proteins are polymers constructed from the same set of 20 amino acids. Polymers of amino acids are polypeptides. It is the amino acid sequence of a polypeptide that determines what 3-dimensional conformation the protein will take. Many proteins are globular (roughly spherical), others are fibrous in shape yet countless variations are possible. The conformation of the protein will determine the proteins particular "job."
The sequence of amino acids in a protein, known as the primary structure, determine the secondary and tertiary structure.
This means that a change of a single amino acid has the potential to change the overall 3D shape of the entire protein, which could limit or remove its function(s).
The sequence of the DNA nucleotides determines the genetic code, which determines the structure and function of proteins. The proteins produced by a cell determines its structure and functions.
The sequence is what controls the shape of the protein,
and how it can fold.
Thus occasionally the order doesn't count, but most of the time its critical.
it is important because amino acids form liids in the body and if the formula is messed up the results could be deadly
Because the order in which the amino acids are joined determines which protein is made. Every different protein has a unique sequence of amino acids.
It is the coding mechanism of your dna as well as how different processes work in your body.
No, first of in total, both RNA and DNA combined have five nucleotides, DNA and RNA, both consists of three of the same nucleotides, and have one that varies between the two. Both DNA and RNA, have the nucleotides, guanine, cytosine and adenine, however DNA, has the additional nucleotide thymine and RNA instead of thymine has uracil. So, DNA's nucleotides are guanine, cytosine, adenine and thymine, while RNA's are guanine, cytosine, adenine and uracil. To specifically answer the question, no DNA consists of four different nucleotides and RNA consists of three of the same nucleotides, with one differing.
DNA is composed of nucleotides. DNA is essentially a polymer made up of nucleotide monomers
DNA Polymerases are responsible for the addition of nucleotides to the new strand of DNA, and for replacing the RNA primers.
DNA contains four nucleotide bases, which are adenine, thymine, cytosine and guanine. The pairs of nucleotides that can be held together by weak hydrogen bonds are purines and pyrimidines.
Nothing gets added on to the DNA. Pol I is suppose to repair damaged sequences , so if it is nonfunctional, the damage sequences remain causing a mutated gene sequence.
so they cant disolve
The complementary relationship between the sequences of nucleotides lead to the discovery of DNA replication. After discovery of this relationship it became easier to understand how the bases of nucleotides pair up during replication and so they became easier to duplicate.
No, first of in total, both RNA and DNA combined have five nucleotides, DNA and RNA, both consists of three of the same nucleotides, and have one that varies between the two. Both DNA and RNA, have the nucleotides, guanine, cytosine and adenine, however DNA, has the additional nucleotide thymine and RNA instead of thymine has uracil. So, DNA's nucleotides are guanine, cytosine, adenine and thymine, while RNA's are guanine, cytosine, adenine and uracil. To specifically answer the question, no DNA consists of four different nucleotides and RNA consists of three of the same nucleotides, with one differing.
DNA is composed of nucleotides. DNA is essentially a polymer made up of nucleotide monomers
RNA nucleotides are similar to DNA nucleotides, but instead of thymine, RNA has uracil. So, the RNA nucleotides are: Adenine, uracil, guanine, cytosine.
Nucleotides are used for DNA and RNA. DNA is information needed so that they are able to align themselves. Also, this is what keeps all the organisms in your body to remain alive.
Scientists already know the DNA sequencing for most bacteria. So, to identify a certain bacteria they will look at the same sections of DNA to determine the sequence. The sequence of nucleotides will then be examined by the scientists to see if they match with the sequences of other bacteria.
It doesn't contain an OHO bond so no other nucleotides can attach to it.
DNA Polymerases are responsible for the addition of nucleotides to the new strand of DNA, and for replacing the RNA primers.
DNA contains four nucleotide bases, which are adenine, thymine, cytosine and guanine. The pairs of nucleotides that can be held together by weak hydrogen bonds are purines and pyrimidines.
Molecular structure of DNA consists of Nucleotides that carry genetic information. However RNA also has nucleotides but it is not as stable as DNA. So, I think the stability of DNA structure is what "makes it uniquely qualified to function as information carrier".
Nothing gets added on to the DNA. Pol I is suppose to repair damaged sequences , so if it is nonfunctional, the damage sequences remain causing a mutated gene sequence.