To determine the first four amino acids coded by a given DNA or RNA sequence, you need to translate the corresponding codons from the nucleotide sequence. Each codon consists of three nucleotides and translates to a specific amino acid based on the genetic code. Without the actual sequence provided, I cannot identify the specific amino acids. Please provide the sequence for an accurate translation.
To determine how many amino acids are coded for in the segment 5' atcagcgctggc 3', we first need to convert the DNA sequence into its corresponding mRNA sequence. The mRNA sequence would be 5' UAG UCG CUG CCG 3'. Each amino acid is coded for by a codon, which consists of three nucleotides. Therefore, this mRNA sequence contains four codons, coding for four amino acids.
To determine the sequence of amino acids coded by the nucleotides AGUAUAUCGCGUUGU, we first need to convert the RNA sequence into its corresponding codons. The sequence can be divided into codons as follows: AGU-AUA-UCG-CGU-UGU. Using the genetic code, these codons translate to the following amino acids: Serine (Ser), Isoleucine (Ile), Serine (Ser), Arginine (Arg), and Cysteine (Cys). Therefore, the final sequence of amino acids is Ser-Ile-Ser-Arg-Cys.
To determine the names of the amino acids coded by a specific mRNA sequence, you first need to translate the mRNA codons into their corresponding amino acids using the genetic code. Each set of three nucleotides (codon) in the mRNA specifies one amino acid. For example, the codon AUG codes for methionine, while UUU codes for phenylalanine. If you provide a specific mRNA sequence, I can help identify the corresponding amino acids.
To determine the resulting sequence of amino acids in a growing protein chain from the sequence of bases in a messenger RNA (mRNA), you first need to translate the mRNA codons into their corresponding amino acids using the genetic code. Each codon, consisting of three nucleotides, specifies a particular amino acid. By reading the mRNA sequence from the start codon (AUG) and converting each codon into its respective amino acid, you can construct the protein chain. If you provide the specific mRNA sequence, I can help you identify the resulting amino acid sequence.
This is actually false. DNA strands that codes for amino acids do so using 3 nucleic acids to encode an amino acid. Since there are 4 nucleic acids with 3 positions each, there are 64 possible nucleic acid "words". There are only 20 amino acids that are directly coded by these 3-nucleic-acid-words. All 64 "words" are valid. but the number of nucleic acid "spellings" that code for a particular amino acid varies from 1 to 6. There are many mutations where one or more changes to a nucleic acid sequence will not change the protein being made; so long as the changes are simply different "spellings" of the same amino acid. A statistical example: There are around 57,000 different "spellings" of the first 10 amino acids in human serum albumin that will produce the protein correctly.
To determine how many amino acids are coded for in the segment 5' atcagcgctggc 3', we first need to convert the DNA sequence into its corresponding mRNA sequence. The mRNA sequence would be 5' UAG UCG CUG CCG 3'. Each amino acid is coded for by a codon, which consists of three nucleotides. Therefore, this mRNA sequence contains four codons, coding for four amino acids.
To determine the sequence of amino acids coded by the nucleotides AGUAUAUCGCGUUGU, we first need to convert the RNA sequence into its corresponding codons. The sequence can be divided into codons as follows: AGU-AUA-UCG-CGU-UGU. Using the genetic code, these codons translate to the following amino acids: Serine (Ser), Isoleucine (Ile), Serine (Ser), Arginine (Arg), and Cysteine (Cys). Therefore, the final sequence of amino acids is Ser-Ile-Ser-Arg-Cys.
To determine the names of the amino acids coded by a specific mRNA sequence, you first need to translate the mRNA codons into their corresponding amino acids using the genetic code. Each set of three nucleotides (codon) in the mRNA specifies one amino acid. For example, the codon AUG codes for methionine, while UUU codes for phenylalanine. If you provide a specific mRNA sequence, I can help identify the corresponding amino acids.
Fred sanger
Each amino acid is coded for by a 3-base sequence known as a codon. Therefore you would need 9 bases to code for 3 amino acids.The sequence UAG-CGA-GG would not add three amino acids to a protein.For the sequence UAG-CGA-GG:UAG is a STOP codon - translation would cease at this point and no further amino acids would be added.CGA codes for Arginine.GG does not code for an amino acid - it would need one more base to be a codon. GGU, GGA, GGG and GGC all code for Glycine.
To determine the resulting sequence of amino acids in a growing protein chain from the sequence of bases in a messenger RNA (mRNA), you first need to translate the mRNA codons into their corresponding amino acids using the genetic code. Each codon, consisting of three nucleotides, specifies a particular amino acid. By reading the mRNA sequence from the start codon (AUG) and converting each codon into its respective amino acid, you can construct the protein chain. If you provide the specific mRNA sequence, I can help you identify the resulting amino acid sequence.
In order to answer this question, you must, and prpbably do have the codon sequences of the RNA or DNA, and a chart saying what each codon codes for in terms of amino acids. The mRNA from transcription is what the sheet probably has on it, with each codon contained therin signaling a certain amino acid. If you can post the sequence or something like that, then ill sertainly answer it for you.
This is actually false. DNA strands that codes for amino acids do so using 3 nucleic acids to encode an amino acid. Since there are 4 nucleic acids with 3 positions each, there are 64 possible nucleic acid "words". There are only 20 amino acids that are directly coded by these 3-nucleic-acid-words. All 64 "words" are valid. but the number of nucleic acid "spellings" that code for a particular amino acid varies from 1 to 6. There are many mutations where one or more changes to a nucleic acid sequence will not change the protein being made; so long as the changes are simply different "spellings" of the same amino acid. A statistical example: There are around 57,000 different "spellings" of the first 10 amino acids in human serum albumin that will produce the protein correctly.
To determine the amino acids in the protein produced from an RNA strand, you need to first translate the RNA sequence into codons, which are groups of three nucleotides. Each codon corresponds to a specific amino acid based on the genetic code. Therefore, the specific amino acids found in the protein depend on the sequence of the RNA strand generated during transcription. Without the actual RNA sequence, it's impossible to specify which amino acids would be present in the resulting protein.
A codon is three bases long - so this section of mRNA would have 4 codons; UGA-UUC-AGU-AAC.Each codon relates to a specific amino acid (but several codons can code for the same amino acid, for example both UUU and UUC code for the amino acid Phenylalanine).Normally if you have four codons, such as this section of mRNA, the maximum number of amino acids you could have would be four. However, the first codon in this section, UGA, is actually a STOP codon. This means that when the ribosome reaches this codon, no further amino acids will be joined.This means that no amino acids could be coded for with this section of mRNA. (If the order of the codons was reversed, making the STOP codon last, then the answer would be three).
To determine the amino acid sequence from DNA, one must first transcribe the DNA into mRNA. Then, the mRNA is translated into a sequence of amino acids using the genetic code. Each set of three nucleotides in the mRNA, called a codon, corresponds to a specific amino acid. By reading the codons in the mRNA, one can determine the amino acid sequence.
To determine the DNA sequences coding for specific proteins, you would first identify the amino acid sequence of the protein. Then, using the genetic code, you can determine the corresponding DNA sequence by identifying the codons that encode for each amino acid. This process involves translating the protein sequence from amino acids back to nucleotides found in DNA.