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The complementary mRNA sequence for the DNA sequence CGA would be GCU, as adenine (A) pairs with uracil (U) in RNA instead of thymine (T). The corresponding tRNA sequence that pairs with the mRNA GCU would be CAG, where guanine (G) pairs with cytosine (C) and cytosine (C) pairs with guanine (G). Thus, for the DNA sequence CGA, the mRNA is GCU and the tRNA is CAG.
Firstly, DNA is transcripted to mRNA, which is then translated by ribosomes into your polypeptide. Each set of 3 bases on the mRNA (codon) codes for a particular amino acid. However, there can be up to four codons, coding for a single amino acid. ie GCU, GCC, GCA and GCG all code for Alanine. Therefore, if you know the amino acid sequence, you can work backwards to mRNA and then to DNA, but you wouldn't be very accurate as you'd need to guess the codons.
mRNA carries the genetic code to a ribosome.
To transcribe DNA to messenger RNA, you need to replace each DNA base with its RNA complement: G in DNA is transcribed to C in mRNA, C to G, A to U (uracil), and T to A. Therefore, the DNA sequence ccg atc gac cga would be transcribed to GGC UAG CUG GCU in mRNA.
In normal conditions C always Paris with G and A with U in mRNA so in this CAG the anticoodon wil be GUC
The anticodons on tRNA corresponding to the mRNA codons would be UCU-CCA-GCU. This is because they are complimentary to the mRNA codons based on the genetic code.
The complementary mRNA sequence for the DNA sequence CGA would be GCU, as adenine (A) pairs with uracil (U) in RNA instead of thymine (T). The corresponding tRNA sequence that pairs with the mRNA GCU would be CAG, where guanine (G) pairs with cytosine (C) and cytosine (C) pairs with guanine (G). Thus, for the DNA sequence CGA, the mRNA is GCU and the tRNA is CAG.
Gcu aga
To determine the amino acid sequence from mRNA, you would first transcribe the mRNA into a complementary DNA sequence, then translate the DNA sequence into amino acids using the genetic code. Each set of three nucleotides (codon) in the mRNA corresponds to a specific amino acid in the protein.
Firstly, DNA is transcripted to mRNA, which is then translated by ribosomes into your polypeptide. Each set of 3 bases on the mRNA (codon) codes for a particular amino acid. However, there can be up to four codons, coding for a single amino acid. ie GCU, GCC, GCA and GCG all code for Alanine. Therefore, if you know the amino acid sequence, you can work backwards to mRNA and then to DNA, but you wouldn't be very accurate as you'd need to guess the codons.
GCU London was created in 2010.
it depends on the codon spcified. The tRNA will have the complementary strand along with an amino acid, for which is specified by the mRNA. if the mRNA codon was "CGA" the tRNA codon would have an amino acid and the complementary codon of "GCU"
mRNA gets its code from DNA during process "Transcription".
mRNA carries the genetic code to a ribosome.
mRNA uses uracil in its genetic code, not thymine.
Anticodons for alanine (Ala) are: CGA, CGG, CGU, CGC
To transcribe DNA to messenger RNA, you need to replace each DNA base with its RNA complement: G in DNA is transcribed to C in mRNA, C to G, A to U (uracil), and T to A. Therefore, the DNA sequence ccg atc gac cga would be transcribed to GGC UAG CUG GCU in mRNA.