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determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences? determine amino acid sequences?
Amino acid sequences are made up of building blocks called amino acids, while nucleotide sequences are made up of building blocks called nucleotides. Amino acid sequences determine the structure and function of proteins, while nucleotide sequences determine the genetic information in DNA and RNA.
Similarities in amino acid sequences tell us the the genes coding for these proteins are similar. Similar genes are due to shared ancestry ie the organisms have evolved from a common ancestor in the past. Differences in amino acid sequence tell us that mutations have occurred in the genes since the organisms separated from the common ancestor. The bigger the differences, the longer the organisms have been separated.
The variation in amino acid sequences can impact the functionality and characteristics of different organisms by affecting the structure and function of proteins. Changes in amino acid sequences can alter the shape and activity of proteins, leading to differences in biological processes and traits among organisms.
To determine how many amino acids were changed, you would need to compare the amino acid sequences of the original and mutated proteins. By aligning the two sequences, you can count the positions where the amino acids differ. This count will give you the total number of changed amino acids. If you provide specific sequences or context, I can help you analyze them further.
Amino acid sequences are used in classification by comparing the similarities and differences in the sequences of proteins across different organisms. This comparative analysis can reveal evolutionary relationships, helping to classify species based on genetic lineage. Additionally, specific sequences can indicate functional traits, aiding in the identification of protein families and the understanding of biological processes. Ultimately, these sequences serve as crucial data for phylogenetic studies and taxonomy.
Gad M. Landau has written: 'An efficient string matching algorithm with k differences for nucleotide and amino acid sequences' 'An efficient string matching algorithm with k differences for nucleotide and amino acid sequences' -- subject(s): Accessible book 'Efficient string matching with k mismatches' -- subject(s): Accessible book
i'd go with the amino acid sequences... they are, after all, the second genetic code, meaning they are the blueprint for the function of the amino acid.
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The amino acid sequences of hemoglobin in humans and frogs are different due to evolutionary divergence. While both hemoglobins are composed of similar building blocks (amino acids), the specific sequence of amino acids varies between species. This divergence in sequence reflects the adaptation of these proteins to meet the specific oxygen-carrying needs of each species.
yes, you would expect to find the same number of difference in the amino acid chains when comparing organisms. Of course, it could depend on the organism but really, there is also a always a chance that there is the same number of differences.
called coding sequences or exons. These sequences are transcribed into messenger RNA (mRNA) and eventually translated into a specific sequence of amino acids to form a protein.