GTA.
What ever is on the tRNA will also be on the DNA codon.
You can also work this out backwards.
tRNA Anticodon reads
GUA
mRNA codon reads
CAU
DNA reads
GTA
The tRNA anticodon for TAC would be AUG. However, tRNA does not transcribe DNA and would not come in contact with the nitrogen base thymine. A better question would be what is the tRNA anticodon for the mRNA codon UAC.
No, an anticodon tRNA does not contain thymine (T) nucleotide. Instead, tRNA contains uracil (U), which pairs with adenine (A) in the RNA molecule during protein synthesis. Thymine is typically found in DNA molecules but is replaced by uracil in RNA.
Diabolical sith lordyness, its just the basics of Friday rising like a lovers wenis.
The two types of molecules involved when the codon pairs with its anticodon are messenger RNA (mRNA) and transfer RNA (tRNA). The mRNA carries the codon sequence, while the tRNA carries the anticodon sequence that base-pairs with the codon during translation.
The complementarity between the anticodon on the tRNA and the codon on the mRNA determines whether a specific tRNA can bind to an mRNA molecule. If there is a match between the anticodon and codon, the tRNA will bind to the mRNA during translation.
The tRNA anticodon for TAC would be AUG. However, tRNA does not transcribe DNA and would not come in contact with the nitrogen base thymine. A better question would be what is the tRNA anticodon for the mRNA codon UAC.
No, an anticodon tRNA does not contain thymine (T) nucleotide. Instead, tRNA contains uracil (U), which pairs with adenine (A) in the RNA molecule during protein synthesis. Thymine is typically found in DNA molecules but is replaced by uracil in RNA.
Diabolical sith lordyness, its just the basics of Friday rising like a lovers wenis.
A tRNA anticodon is more similar to RNA in nucleotide sequence because tRNA is a type of RNA molecule that carries amino acids to the ribosome during protein synthesis. Anticodons are sequences of three nucleotides on tRNA molecules that are complementary to specific codons on mRNA. Since tRNA is part of the RNA family, its nucleotide sequence is more similar to RNA than DNA.
The two types of molecules involved when the codon pairs with its anticodon are messenger RNA (mRNA) and transfer RNA (tRNA). The mRNA carries the codon sequence, while the tRNA carries the anticodon sequence that base-pairs with the codon during translation.
The anticodon of the tRNA would be UCG, which is the complementary sequence to AGC. This anticodon would base-pair with the mRNA codon AGC during translation, facilitating the incorporation of the amino acid carried by the tRNA into the growing polypeptide chain.
Inside the human body the tRNA (transfer RNA) transfer coded message to the DNA strand. TRNA is one class of RNA molecules that transport amino acids to ribosomes for incorporation into a polypeptide undergoing synthesis.
To determine the matching tRNA molecule for an mRNA codon derived from a given DNA sequence, first, transcribe the DNA to mRNA by replacing thymine (T) with uracil (U). Then, identify the corresponding codon from the mRNA. Each codon consists of three nucleotides, and the tRNA anticodon will be complementary to this codon. If you provide the specific DNA sequence, I can help you find the exact tRNA molecule.
The complementarity between the anticodon on the tRNA and the codon on the mRNA determines whether a specific tRNA can bind to an mRNA molecule. If there is a match between the anticodon and codon, the tRNA will bind to the mRNA during translation.
A codon is found in the DNA sequence and in the mRNA sequence. The anticodon is the opposite sequence that would match with the sequence of the codon and allows pairing of the anticodon with the codon
I'm not completely sure but I think it's uracine, glycine, cytosine, and adenine. But that's 4
An anticodon is the base of a tRNA. a tRNA transfer the information from the mRNA to the amino acid to form a protein. The anticodon on the tRNA helps it to bind to codons on the mRNA through complementary base pairing to as to make the correct proteins.