The complementary base of A is T, and the complementary base of G is C. So if there is an T the complementary would be A, and if there is a C the complementary would be a G and so on. Therefore the complementary strand would be: G A A T C C G A A T G G T.
The sequence of the mRNA transcribed from the DNA gene TTACAGGTCCCA would be complementary to the template strand of the DNA. Since mRNA is synthesized using uracil (U) instead of thymine (T), the corresponding mRNA sequence would be AAUGUCCAGGGU. This sequence reflects the direct transcription of the DNA template, replacing each thymine with uracil.
Diploid cells
A gene is made up of one continuous strand of DNA, which contains the instructions for producing a specific protein. Each gene contains a unique sequence of nucleotides that encode the information needed for protein synthesis.
The codon sequence on the mRNA strand determines the specific sequence of amino acids that will be assembled into a protein during translation. Each codon, consisting of three nucleotides, corresponds to a particular amino acid or serves as a stop signal. This sequence ultimately dictates the protein's structure and function, playing a critical role in cellular processes and organismal traits. Thus, the codon sequence is fundamental to gene expression and protein synthesis.
The DNA template strand is used to create mRNA.
The mutant strand would likely have a different amino acid sequence compared to series 1 due to the mutation in the DNA sequence. The mutant strand may result in changes in the protein structure and function if the mutation leads to a substitution, deletion, or insertion of a nucleotide in the coding region of the gene.
The specific sequence of the new mRNA strand produced by a mutated gene will depend on the nature of the mutation. Mutations can cause changes in the coding region of the gene, leading to alterations in the mRNA sequence and potentially affecting the resulting protein or gene function. Further analysis and sequencing of the mutated gene would be required to determine the exact mRNA sequence.
The sequence of the mRNA transcribed from the DNA gene TTACAGGTCCCA would be complementary to the template strand of the DNA. Since mRNA is synthesized using uracil (U) instead of thymine (T), the corresponding mRNA sequence would be AAUGUCCAGGGU. This sequence reflects the direct transcription of the DNA template, replacing each thymine with uracil.
The new mRNA strand produced by a mutated gene may contain errors in the sequence due to a change in the gene's DNA sequence. This can lead to changes in the resulting protein, affecting its structure or function. Mutations can range from single nucleotide changes to large deletions or insertions, altering the mRNA sequence accordingly.
Diploid cells
The complementary DNA strand would be AGC CTG GTA GCT. In DNA, adenine pairs with thymine and cytosine pairs with guanine. Therefore, the complementary strand is formed by replacing each base with its complementary base.
The first stage of gene expression is known as transcription. This is the process by which RNA Polymerase, along with other transcription factors, reads and transcribes the DNA sequence into a complementary RNA strand.
A gene is made up of one continuous strand of DNA, which contains the instructions for producing a specific protein. Each gene contains a unique sequence of nucleotides that encode the information needed for protein synthesis.
The codon sequence on the mRNA strand determines the specific sequence of amino acids that will be assembled into a protein during translation. Each codon, consisting of three nucleotides, corresponds to a particular amino acid or serves as a stop signal. This sequence ultimately dictates the protein's structure and function, playing a critical role in cellular processes and organismal traits. Thus, the codon sequence is fundamental to gene expression and protein synthesis.
A mutation is a permenent in DNA sequence of a gene,mutation in a gene's DNA sequence can alterthe aminoacid sequence of the protein encodedby the gene.
The DNA template strand is used to create mRNA.
The gene DNA sequence that encodes the protein "mvhtdaekaavsglw" would be specific to the organism of interest. To determine the specific gene sequence, one would need to perform a database search using the protein sequence to identify the corresponding gene sequence. This can be done through tools like BLAST or by searching specific databases like NCBI.