On The Origin Of A Genetic Constant - 14

What?

I. Preface

Readers can determine the accuracy of a DNA or RNA sequence by the degree of variation from the DNA or RNA genetic constant. 

This introduction to the concept was detailed in the second post of this series:

"The exercise involved in exposing this "Genetic Constant" is very, very simple at its core:

'The number of atoms in a given nucleotide ('A', 'C', 'G', 'T', and 'U') are:

'A' = "C₅H₅N₅" (5 Carbon, 5 Hydrogen, 5 Nitrogen)

'C' = "C₄H₅N₃O₁" (4 Carbon, 5 Hydrogen, 3 Nitrogen, 1 Oxygen)

'T' = "C₅H₆N₂O₂" (5 Carbon, 6 Hydrogen, 2 Nitrogen, 2 Oxygen)

'G' = "C₅H₅N₅O₁" (5 Carbon, 5 Hydrogen, 5 Nitrogen, 1 Oxygen)

'U' = "C₄H₄N₂O₂" (4 Carbon, 4 Hydrogen, 2 Nitrogen, 2 Oxygen)

(Quantum Biology - 18). As you can see the analysis of the atom content of any given genome in the appendix (Link) is a function of simple arithmetic (it is not "rocket science").

The percentages are derived by dividing the count of each atom type by the total atom count.'

(On The Origin of The Containment Entity - 16). How that constant is calculated depends on whether the genetic sequence is DNA or RNA (a DNA 'T' count is not the same as an RNA 'U' count; note that this current exercise only involves DNA)."

(On The Origin Of A Genetic Constant - 2, cf. this). The 'art' of genome sequencing is not yet the 'science' those who do it want it to be, but it is improving quickly.

II. Appendices

Today's appendices (One, Two, Three) detail the variation in a sequence from the valid atom counts in various genomes.

The previous post in this series is here.