The biology
DNA is a right-handed antiparallel double helix, bases inside, phosphates out. A–T pairs are held by two hydrogen bonds, G–C by three. The helix comes in forms — A, B, C, Z — differing in how many base pairs make a turn; the natural B form is quoted at about ten base pairs to a turn, the in-vivo repeat nearer ten and a half. A closed DNA circle carries a fixed linking number that splits into twist and writhe: Lk = Tw + Wr.
The clamps and the three exact turns
The pairing is clamped on the primes {2, 3} — two bonds and three. And the helix does not have ‘about ten’ base pairs per turn as a smear; it has three exact turns, each closing the 360° circle: Z-DNA at 30.0° per base pair (12 bp, a pure integer node), the π/water form at 324/π² (10.966 bp, on the same node as the water molecule's bond angle), and the in-vivo B form at 34.56° (= 864/5², carrying the celestial day-number 864).
The rise is hydrogen's ionization, quartered
The height the helix climbs from one base pair to the next is not a free stacking distance. It is hydrogen's ground-state ionization energy divided by four: 13.6048896 eV ÷ 4 = 3.4012224 Å — the base-pair rise — and ten of those is the 34.012224 Å pitch of a full turn. The distance the address climbs per letter is the very energy it takes to free hydrogen's electron.
Where this departs from current science
| Current science says | The Force of Time says |
|---|---|
| The helix has ~10–11 bp per turn — a smeared continuum set by conditions. | Three exact turns on three registers: Z (30°), the π/water form (324/π²), and B (34.56° = 864/5²). |
| The 3.4 Å rise is a geometric fact of base stacking. | The rise is hydrogen's ionization energy ÷ 4 = 3.4012224 Å. |
| Lk = Tw + Wr is enforced by enzyme mechanics. | It is the conservation of time, dΣΤ = 0, in a topological guise. |
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This paper, and any information drawn from it, may be used freely provided the reference attribution to Stephen Daubney and The Daubney Foundation is recognised.