Tyrosine. If ATA is the DNA codon, the mRNA transcription would be UAU (since A pairs with U in RNA rather than T). UAU codes for tyrosine.
The complementary nucleotide sequence of ccgagattg is ggctctaac.
If the sticky end of a sequence is TTAA, it can bind to a DNA molecule with the sequence AATT
Steps 3 and 4 likely produced different polypeptides due to differences in the nucleotide sequence of the mRNA that was used as the template for protein synthesis. The codons in mRNA determine the sequence of amino acids in the polypeptide chain. Any change in the nucleotide sequence can lead to the incorporation of different amino acids during translation, resulting in a different polypeptide being produced.
Here's a sample nucleotide sequence:AATUGCIf there was a nucleotide deletion (let's say the "G" gets deleted), the sequence would become:AATUCIf there was a nucleotide addition/insertion (let's say a "G" was added between "T' and "U"), the sequence would become:AATGUGCThe difference is that a deletion makes the DNA shorter and an insertion makes it longer.
D
transcription
Transcription.
The complementary nucleotide sequence of ccgagattg is ggctctaac.
mRNA contains uracil in its nucleotide sequence, not thymine.
The genetic code refers to the nucleotide triplets of DNA and RNA molecules that carry genetic information. It specifies the correlation between an RNA-nucleotide sequence, as well as an amino-acid sequence.
A deletion mutation occurs when a nucleotide is dropped from a DNA sequence. This can cause a shift in the reading frame, leading to a non-functional protein being produced.
A mutation in a DNA nucleotide sequence would be more harmful than a mutation in a mRNA nucleotide sequence because it could cause the synthesis of multiple nonfunctional proteins in comparison to a mutation in a mRNA nucleotide sequence that would be less harmful because it would result in a few nonfunctional proteins.
If the sticky end of a sequence is TTAA, it can bind to a DNA molecule with the sequence AATT
Yes, RNA contains uracil in its nucleotide sequence instead of thymine, which is found in DNA.
Steps 3 and 4 likely produced different polypeptides due to differences in the nucleotide sequence of the mRNA that was used as the template for protein synthesis. The codons in mRNA determine the sequence of amino acids in the polypeptide chain. Any change in the nucleotide sequence can lead to the incorporation of different amino acids during translation, resulting in a different polypeptide being produced.
No, mRNA does not contain thymine in its nucleotide sequence. Instead, mRNA contains uracil in place of thymine.
Here's a sample nucleotide sequence:AATUGCIf there was a nucleotide deletion (let's say the "G" gets deleted), the sequence would become:AATUCIf there was a nucleotide addition/insertion (let's say a "G" was added between "T' and "U"), the sequence would become:AATGUGCThe difference is that a deletion makes the DNA shorter and an insertion makes it longer.