No, the other way around would be correct
To make 3 amino acids, you would need at least 9 bases. This is because each amino acid is encoded by a sequence of 3 bases called a codon. So, 3 amino acids would require 3 codons, which would be 9 bases in total.
Each amino acid is encoded by a set of three nucleotide bases in mRNA, known as a codon. Therefore, to encode three amino acids, there would need to be a total of nine nucleotide bases in the mRNA (3 amino acids x 3 bases per amino acid = 9 bases).
Bases, I'm not sure. But all acids I would say are, seeing as they are corrosive.
Storing acids and bases together can result in a chemical reaction that produces heat, gases, or even explosions. This can lead to dangerous situations and can harm individuals handling the chemicals. It is important to store acids and bases separately to prevent accidental reactions.
I would say you are asking if acid is slippery. Bases have a denaturing effect on proteins that makes them slippery. If you touch bases, like drano or soap, you would find them slippery. Acids simply feel like water.
The first person to categorize acids and bases in chemical terms would be Danish chemist, Soren Peder Lauritz Sorensen, and he did so in 1909. Sorensen was first to introduce the concept of pH, the scale of measure for acidity and basicity.
A segment of DNA with 21 bases would encode for a polypeptide with 7 amino acids. This is because each amino acid is coded for by a sequence of three bases, called a codon. Therefore, 21 bases would be translated into 7 codons, each specifying an amino acid.
In order to create two amino acids, you would need two codons, which is 6 bases (Adenine, Guanine, Thymine, or Cytosine) because a codon is a group of three bases.
A gene coding for a polypeptide made of 51 amino acids would have (51 \times 3 = 153) bases. Each amino acid is coded by a sequence of three nucleotide bases in mRNA called a codon. So, the number of bases required to code for a polypeptide can be calculated by multiplying the number of amino acids by 3.
There would be 393 bases on the mRNA strand corresponding to 131 amino acids, as each amino acid is coded for by a sequence of three bases (1 codon). By multiplying the number of amino acids by 3, you can determine the total number of bases required to encode the protein sequence on mRNA.
The chemical opposite is a base (alkaline substance). Bases and acids generally neutralize each other. The literal opposite of an acid would be a neutral substance that had no reaction potential. This would differ for different reactions.