1. Rewritings
1.1 Rewriting G - C:
G- and C-bases transformed further to nb-6 becomes sums in later
steps of the ES-chain, through rewritings, implying -44:
Fig. 20-1:
*411 = sum of G2-coded ams.
Cf. 44 = the interval 252 - 208 = 4' - 3'.
G1 + C1 = 544 divided 177 + 367:
C2 = 177 - 44 = 133
G2 = 367 + 44 = 411
1.2 Number 65 - 101 - 81, bases and codon-grouped ams:
Fig. 20-2:
[U 112 and C 111 = 223, transformed together = 337-8.
Further transformed to nb-6 = 1011= total sum of the
ES-chain in nb-10..]
1.3 Simple rewriting of 2 x 5', 4', 3' in the ES-chain, taken as nb-8 numbers:
This rewriting gives closely the two sets of ams, sums of G1+G2, C+C2 etc.
2 x 292-10: = 584. 584-8 ~ 604 = G1 + G2 +2; →
604 + 416 = 1020 = A1 + A2
2 x 252-10 = 504, 504-8 ~ 484 = C1 + C2 - 2; →
484 + 416 = 900 = U1 + U2
Fig. 20-3:
1.4 From A-base to 273, mean value of 2 ams R+B:
Fig. 20-4:
2. Parents of the codon bases, Hypoxanthine 136 and Orotate 156:
It was found (file 03) that the sum 292 of the parens to the base-types, when distributed to following numbers in the ES-chain, x 2, gave the codon-groups of ams C1 + U1 and G1 + A1:
Fig. 20-5:
Fig. 20-6: The nb-10 and nb-8 numbers added (!), a curious operation:
3. Number 888 in different appearances:
Fig. 20-7:
4. Difference of bases in nb-10 and nb-8, read in nb-16, gives 2 x 272 = 544;
Fig. 20-8:
5. DNA-bases transformed giver as intervals the G+C- and T+A-pairs and 752:
Fig. 20-9:
6. Sum of the whole ES-chain 1011:
6.1 N +3 and Z +3 from the ES-chain transformed separately and whole:
Fig. 20-10:
Cf. sum 3282 and sum of triplet series in figure
here.
6.2 DNA-bases as nb-6 numbers give the sum of the ES-chain:
Fig. 20-11:
7. Totals, two mere operations
7.1 From ES-number 5' to 1/3 of the total 3276:
Fig. 20-12:
7.2 G+C-bases transformed two times give 2 times total R 1504:
Fig. 20-13:
8. Individual R-chains of ams related through transformations ?
Transformations often imply additional numbers equivalent with molecules,
as e. g. plus CH2. There are formally of course a lot of transformations
possible between individual ams, only some of which may correspond
to biochemical relations. Some examples are shown in the figure
below, here regarding R-chains:
It could be added that all four ams with double codons may transformed
get the number 37: Ser AG 31-10 = 37-8,
Arg AG 101-6 = 37-10,
Ile and Leu 57-6 = 101-6 = 37-10, (file 18, para. 8).
Fig 20-14:
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