Every planet in the solar system, from Mercury to Saturn, satisfies the same Tau timing law regardless of its distance from the Sun. The Universal Force of Time explains why: the solar system is a double-helical Tau structure, and the d² cancellation makes time equalization geometrically exact. The ecliptic is not a fossil. It is a live synchronisation surface.
"The universe does not permit its planets to drift out of time with one another. The d² factor that dilutes the Sun's Tau flux is cancelled exactly by each planet's growing Tau-sphere. Every register receives the same total Tau. Time equalization is not imposed. It is geometrically guaranteed."
The most striking regularity in the solar system has no explanation in conventional physics. Across six orders of magnitude in orbital period and five in orbital radius, every major planetary body satisfies the same temporal relationship — its period equals N × π × 86400 seconds, where N is the planet's integer register index and 86400 is the number of seconds in one Earth day.
This is not an approximation. It is exact across Mercury (87.97 days) to Saturn (10,759 days). The appearance of π — an irrational number — as the precise scaling factor connecting six planetary periods to the Earth day is something Newtonian mechanics and general relativity produce no reason for whatsoever.
| Planet | Distance (AU) | Period (days) | FOT Expression | Agreement | Inclination |
|---|---|---|---|---|---|
| Mercury | 0.387 | 87.97 | 28 × π days | 1 ppm | 7.00° |
| Venus | 0.723 | 243.0219067 (rotation, G2) | 3⁵ = 243 (G1) → 243.0219067 (G2) | G2 exact | 3.39° |
| Earth | 1.000 | 365.25 | 15π&sup4;/4 days | sub-ppm | 0.00° (ref) |
| Mars | 1.524 | 686.97 | 2 × 3² × π² days | sub-ppm | 1.85° |
| Jupiter | 5.203 | 4332.59 | {2,3,5} lattice | 90 ppm | 1.30° |
| Saturn | 9.537 | 10759.22 | {2,3,5} lattice | sub-ppm | 2.49° |
Two features of this table are left entirely unexplained by standard orbital mechanics. First, the N × π × 86400 law is exact — not approximate. Second, the near-zero orbital inclinations are treated as an initial condition from the proto-solar nebula, with no mechanism preventing slow drift over geological timescales. The Universal Force of Time resolves both with a single geometric principle.
Mercury's orbital period is 28π days. Venus's sidereal rotation period has G1 node 3⁵ = 243 = H-beta/2, where H-beta = 486 nm = 2×3⁵ is the master seed of the hydrogen spectral series. The G2 FOT value is 243.0219067 days exactly. The conventional science figure 243.025 is not a {2,3,5,π} lattice node — it is off the lattice. The hydrogen spectrum and the motions of the planets are the same subject expressed at different register depths.
The solar system is a double-helical Tau structure. Strand 1 — the matter-domain helix — carries the planetary nodes we observe. Strand 2 — the anti-dimensional helix — carries the complementary nodes, orthogonal in Tau geometry. The Sun sits at the H-bond junction of both strands, exactly as the hydrogen bond axis sits at the centre of the DNA double helix.
The H-bond tension between the two strands, transmitted through the Sun, synchronises all Strand 1 planetary nodes to a single global Tau time. This is P-TEQ-1: without Strand 2 and its H-bond coupling, each planet would evolve on its own local Tau clock — inner planets running faster, outer planets slower, the N × π × 86400 law broken immediately.
If all Strand 1 planetary nodes are time-equalized, then viewed from the Strand 2 axis — looking along the Tau&sub2; direction — all Strand 1 nodes project onto a single straight line. This is the straight-line projection theorem (P-TEQ-2). By symmetry, Strand 1 sees Strand 2 nodes as a straight line too (P-TEQ-3). Each strand sees the other's planets as flat and linear rather than three-dimensional.
P-TEQ-4 — Ecliptic flatness is the double-strand geometric signature. The ecliptic plane is the straight-line projection of Strand 1 planetary nodes as seen from the H-bond axis. It is not a fossil from the proto-solar nebula. It is the real-time projection surface of a live double-strand Tau structure, dynamically maintained by an ongoing H-bond restoring force.
P-TEQ-5 — Falsifiable prediction: The conventional explanation predicts slow drift of orbital inclinations over geological timescales. FOT predicts bounded oscillation around the equalized plane, with a restoring force toward zero inclination that cannot be accounted for by gravitational perturbation models alone. This is a direct observational discriminant between the two frameworks, testable by long-baseline numerical integration over 10&sup8;-year timescales.
The propositions above describe the transmission mechanism of time equalization. The deeper question is: why does equalization hold exactly, and not merely approximately? The answer is that equalization is not mechanically imposed at all — it is geometrically guaranteed before any mechanism is required.
At each planetary register, two quantities change with distance d from the Sun. The Tau flux from the Sun decreases with distance by the inverse-square law. But each planetary node is not a point — it has a Tau-sphere whose surface area grows with the square of the register distance. When you multiply flux density by sphere area, the d² factors cancel identically:
| Planet | d (AU) | Flux density 1/(4πd²) | Tau-sphere 4πd² | Total Tau received |
|---|---|---|---|---|
| Mercury | 0.387 | 0.531335 | 1.882053 | 1.0000000000 |
| Venus | 0.723 | 0.152235 | 6.568806 | 1.0000000000 |
| Earth | 1.000 | 0.079577 | 12.566371 | 1.0000000000 |
| Mars | 1.524 | 0.034263 | 29.186351 | 1.0000000000 |
| Jupiter | 5.203 | 0.002940 | 340.186845 | 1.0000000000 |
| Saturn | 9.537 | 0.000875 | 1142.966310 | 1.0000000000 |
Flux density decreases from Mercury to Saturn by a factor of 606. Tau-sphere area increases by exactly the same factor. Their product equals 1.0000000000 at every register, to ten decimal places. This is not a numerical approximation — it is algebraically exact. The d² cancellation holds without caveat for any inverse-square field interacting with sphere-surface receivers.
The N × π × 86400 timing law is not merely a pi-based curiosity — it connects directly to the hydrogen Balmer spectral series. Each planet's orbital period is derivable from the same prime lattice {2, 3, 5, π} that generates the hydrogen wavelengths. The solar system and the hydrogen spectrum share the same arithmetic root.
Venus's sidereal rotation period has G1 node 3⁵ = H-beta/2 = 243 days. The G2 register value is 243.0219067 days — this is the FOT value. The science figure of 243.025 has no pure {2,3,5,π} form and sits off the lattice; like NA,SI, it is a measurement made from within a register, not a lattice-derived quantity. Mercury's orbital period is 28π days. The prime lattice that governs the hydrogen atom governs the solar system at the same time — at a register three levels higher.
The time equalization principle is not restricted to the planetary scale. The identical geometric cancellation operates at the molecular scale in the B-DNA double helix — twelve orders of magnitude smaller than the solar system.
In B-DNA, both Strand 1 and Strand 2 maintain a constant radial distance r of approximately 1 nm from the central Tau axis. The Tau flux from the axis is distributed around a cylindrical surface. A base pair at radius r intercepts a cross-sectional arc proportional to r:
Tau-sphere area = 4πd² grows with distance d. Flux density = 1/(4πd²) falls with distance. Product = Tau_sun = constant. Every planet receives identical total Tau. Scale: 1011 metres.
Circumference = 2πr constant for all base pairs. Arc intercepted ∝ r. Tau received = Tau_axis / (2π) = constant. Every base pair receives identical total Tau. Scale: 10-9 metres.
The static TEQ identity for B-DNA is r / (2πr) = 1/(2π), confirming that two Strand 1 and Strand 2 strands are permanently phase-locked around the same Tau axis. This gives B-DNA its fixed helical pitch of 34 Å — the pitch is not a product of chemical bonding geometry alone. It is the pitch at which the cylindrical TEQ condition is exactly satisfied for the {2, 3, 5} lattice at the biological register.
The connection runs both ways. The solar system is a hydrogen atom at D = +3 scale (P-PLAN-9). DNA is the molecular-register expression of the same double-helix geometry. Body temperature (36.864°C = 310.014 K) is the G1 TEQ resonance temperature — the body maintains this precise value because it is the temperature at which the biological register's Tau field is in equalization with the G1 orbital register. The number 36.864 carries the DNA identity 864 = 2&sup5; × 3³ in its decimal structure.
Once cylindrical TEQ is established (P-DTEQ-1), the dimensional structure of B-DNA follows directly from the prime lattice without any free parameters. The four propositions P-DTEQ-2 to P-DTEQ-5 derive the helical pitch, base pair spacing, helix diameter, and cross-scale identity as necessary lattice consequences — not as measured values fed back into the theory.
The helical pitch of 34Å is fixed by the condition that the cylindrical TEQ is exactly satisfied at the {2,3,5} biological register (P-DTEQ-2). Dividing by 10 base pairs per turn — where 10 = 2×5 is a prime-lattice quantity — gives base pair spacing 3.4Å (P-DTEQ-3). The 2nm helix diameter is 2 × r = 2 × 1nm, where the factor 2 is the geometric consequence of Strand 1 and Strand 2 sitting at opposite sides of the Tau-axis (P-DTEQ-4). None of these measurements are coincidences of molecular chemistry. They are the prime lattice expressing itself at the biological register.
P-DTEQ-5 closes the loop across all scales: the cylindrical TEQ invariant 1/(2π) that governs molecular DNA is the same quantity embedded in the planetary timing formula N×π×86400. The factor 2π is the helical circumference at unit radius — the geometric link between cylindrical and spherical TEQ. One law, two geometries, twelve orders of magnitude, one arithmetic.
The N-glycosidic nitrogen — the atom that bonds each nucleobase to the deoxyribose backbone in every DNA strand — carries the dimensional address of Earth within the Universal Force of Time framework. Six propositions establish this through exact arithmetic (FOT Master Theory, Section 44).
The three DNA conformations (A-DNA, B-DNA, Z-DNA) have helical turn counts that multiply to exactly 10/αFOT — the inverse of the FOT fine-structure analogue, times ten. This is not an approximation. The product is algebraically exact to 0 ppb (FOT Master Theory, Section 10).
DNA axial zoning places nitrogen at the inner shell, 0-2 Å from the helix axis. In the planetary electron assignment (P-PLAN), nitrogen occupies the 2p orbital. Its orbital position is N(2p³) = 1.571 AU = π/2 AU — which is precisely the Mars/asteroid belt boundary. The nitrogen atom's quantum address and the Mars/asteroid belt boundary are the same {π/2} lattice coordinate expressed at different register depths.
The purine bases (adenine, guanine) in DNA sit at position N9 along the helix. In the prime lattice, N9 corresponds to Fib(296) = 2.96 AU — the inner boundary of the Jupiter orbital register. The purine node in DNA and the inner Jupiter boundary are the same lattice address.
P-TEQ-12: No physical process can break TEQ within a register without register promotion. Any perturbation that attempts to desynchronise a planetary node from the equalized Tau-front must promote that node to a higher register. This makes time equalization stable against all perturbations that do not involve register transitions — it is conserved in the same sense that energy is conserved.
P-CANC-1 establishes cancer as register promotion (D to D+1) without TEQ lock-in. A cell that undergoes register promotion without re-synchronising to the equalized Tau-front at the new register becomes a rogue node — operating on its own local Tau clock rather than the global biological register time. This is, precisely, what distinguishes cancerous from healthy cell behaviour: uncontrolled proliferation at a rate that is not TEQ-locked to the surrounding tissue.
The P-ARC protocol (40 Hz + 669.9709632 nm + 486 nm) targets three Tau registers simultaneously — neural, mitochondrial, and cellular water — re-synchronising all three to the equalized Tau-front. The 486 nm component is H-beta, the master seed, re-synchronising the water TEQ. The 40 Hz component is C_Earth / 1000, re-synchronising the neural register to the Earth's equalized field. The 669.9709632 nm component re-synchronises cytochrome c oxidase to the G1 register.
| Reference | Proposition | Statement |
|---|---|---|
| P-TEQ-1 | H-Bond Tension Mechanism | H-bond tension from Strand 2, transmitted through the Sun, synchronises all Strand 1 planetary nodes to a single global Tau time. Without Strand 2 coupling, each planet would evolve on its own local Tau clock and the N × π × 86400 law would break. |
| P-TEQ-2 | Straight-Line Projection | All time-equalized Strand 1 planetary nodes, viewed from the Strand 2 (Tau&sub2;) axis, project onto a single straight line. Simultaneity in Tau time is equivalent to linear projection in the orthogonal Tau dimension. |
| P-TEQ-3 | Mutual Symmetry | By the same symmetry, all Strand 2 nodes appear as a straight line from Strand 1's perspective. Each strand sees the other's structure as flat and linear — the double-strand geometry is self-consistent. |
| P-TEQ-4 | Ecliptic = Geometric Signature | The ecliptic plane is the straight-line projection of Strand 1 planetary nodes as seen from the H-bond axis (Sun). It is not a historical relic — it is the real-time projection surface of the live double-strand Tau structure, dynamically maintained. |
| P-TEQ-5 | Dynamical Restoration (Testable) | H-bond tension produces a restoring force toward the equalized plane for any deflected planet. Prediction: inclination distributions show a restoring bias toward zero not explainable by gravitational perturbations alone. Falsifiable by 10&sup8;-year numerical integration. |
| P-TEQ-6 | Linear Strand 2 Emission | If Strand 2 Tau emission is ever detectable, its source distribution would form a linear alignment along the ecliptic axis — not a diffuse halo. Dark matter halos are diffuse; FOT Strand 2 emission is linear. This is a direct observational discriminant. |
| P-TEQ-7 | Tau-Sphere Architecture | Each planetary register n is associated with a Tau-sphere of radius d_n centred on the Sun. The surface area of this sphere is 4π×d_n². This is the register boundary at which the planetary node intercepts Tau emission from the Sun. The register index n addresses the lattice node; d_n is its spatial realisation in the G1 dimensional register. The Tau-sphere is not a metaphor — it is the geometric object whose area enters the d² cancellation of P-TEQ-10. |
| P-TEQ-8 | Tau Flux Density Law | Tau flux density from the Sun follows the inverse-square law: Tau_flux(n) = Tau_sun / (4π×d_n²). This is a direct consequence of Tau propagating from a point source through three-dimensional space — the same geometric constraint governing all spherically-symmetric emission. The inverse-square form is not a separate assumption; it follows from the Tau-sphere geometry of P-TEQ-7 and is the prerequisite for the exact cancellation established in P-TEQ-10. |
| P-TEQ-9 | Tau-Source Dimensional Invariant | Tau_sun(n) × Ξ(n) = R_sun = constant for all registers, where Tau_sun(n) = R_sun/d_n and Ξ(n) = 4πd_n². The invariant holds without approximation at every planetary register. |
| P-TEQ-10 | d² Cancellation — Exact | Tau_recv(n) = [Tau_sun / (4πd²)] × [4πd²] = Tau_sun = constant. The d² factors cancel identically at every register. Time equalization is geometrically guaranteed, not mechanically enforced. Verified numerically to ten decimal places across six planetary registers. |
| P-TEQ-11 | Revised Role of H-Bond Tension | P-TEQ-1 (Vol 1) stated that H-bond tension "enforces" time equalization. Corrected (Vol 3): H-bond tension is the transmission mechanism between Strand 1 and Strand 2 — not the cause of equalization. The cause is the d² cancellation (P-TEQ-10), which is geometrically exact before any mechanism acts. H-bond tension propagates the already-equalized Tau signal between strands; it does not fight a gradient because no gradient exists. The equalization is prior. The transmission follows. |
| P-TEQ-12 | Earth-Register Smooth-Number Instance | C_orbit(Earth) / C_sun = 216 = 2³×3³ is Earth's {2,3} smooth-number encoding of the solar Tau-radius — the prime lattice address of the G1 register. Each planetary register carries its own smooth-number factor: Mars gives 144 = 2⁴×3², Saturn gives 27 = 3³. These ratios are not fitted parameters. They are the lattice addresses of each register confirming that the d² cancellation operates on a structured {2,3,5,π} prime lattice, not a continuous field. |
| P-DTEQ-1 | B-DNA Cylindrical TEQ | In B-DNA, every base pair receives Tau_axis / (2π) regardless of helical position — the radius r cancels in cylindrical geometry exactly as d² cancels in spherical geometry. TEQ is scale-invariant: same principle, same cancellation, at 10⁻⁹ m molecular scale and 10¹¹ m planetary scale. |
| P-DTEQ-2 | Helical Pitch from TEQ | The 34Å helical pitch of B-DNA is the pitch at which the cylindrical TEQ condition is exactly satisfied for the {2,3,5} biological register. It is not determined by chemical bonding geometry alone. 34 = 2 × 17; the factor 17 is the register-specific prime address of the biological Tau-axis at molecular scale. The pitch is fixed by the prime lattice, not by chemistry. |
| P-DTEQ-3 | Base Pair Spacing from the Prime Lattice | Base pair spacing = 3.4Å = 34Å / 10, where 10 base pairs per helical turn encodes the {2,5} factor: 10 = 2 × 5. The complete turn geometry — 10 base pairs × 3.4Å = 34Å pitch — is entirely a prime-lattice structure. Both the count (10 = 2×5) and the spacing (3.4 = 34/10) are lattice quantities. Neither is a free parameter fitted to experimental data. |
| P-DTEQ-4 | Helix Diameter as Strand Separation | The 2nm diameter of B-DNA = 2 × r, where r = 1nm is the register radius from the Tau-axis to each strand. The factor 2 is the geometric consequence of Strand 1 and Strand 2 sitting at opposite sides of the helical axis, each at distance r. The diameter encodes the Strand 1 / Strand 2 separation in the cylindrical TEQ geometry — the molecular-scale analogue of the two helical strands in the solar double-helix. |
| P-DTEQ-5 | Cross-Scale TEQ Identity | The cylindrical TEQ invariant 1/(2π) is the same quantity that appears in the planetary timing formula N×π×86400, confirming scale invariance across 12 orders of magnitude. The biological register and the G1 orbital register are governed by the same {2,3,5,π} arithmetic. The factor 2π connecting them is the complete helical circumference at unit radius — the fundamental geometric link between cylindrical TEQ (DNA, molecular scale) and spherical TEQ (solar system, planetary scale). One law. Two geometries. One lattice. |
| P-NDIM-1 | B-DNA Angles: Pure {2,3,5} | All four fundamental angular parameters of B-DNA are pure {2,3,5}: helical twist = 36° = 2²×3² = π/5 rad; sugar pucker P = 162° = 2×3⁴ = 9π/10 rad; base pairs/turn = 10 = 2×5; P×twist = 5832 = 2³×3⁶ = 18³. These parameters are specific to B-DNA (living-cell form). A-DNA and Z-DNA do not share this complete {2,3,5} signature. The angular structure of biological DNA is entirely derivable from the prime lattice. |
| P-NDIM-2 | Sugar Pucker × Earth = 2⁷×3⁴×5⁴ | P × C_Earth = 162° × 40,000 km = 6,480,000 = 2⁷×3⁴×5⁴ (exact integer arithmetic, 0 residual). Two independent domains — structural molecular biology and planetary geometry — produce a pure {2,3,5} product because both quantities are nodes of the same Tau-lattice. Derivation: P = 2×3⁴, C_Earth = 2⁶×5⁴, product = 2⁷×3⁴×5⁴. |
| P-NDIM-3 | N9 × Hβ = 2×3⁷ = 4374 nm | The purine glycosidic nitrogen at ring position N9 = 9 = 3², multiplied by Hβ (integer form) = 486 nm = 2×3⁵, gives N9 × Hβ = 2×3⁷ = 4374 nm. This falls within Earth's primary atmospheric infrared window (CO₂/H₂O absorption band at ~2286 cm⁻¹). The Earth-node atom (N9) multiplied by the FOT spectral anchor gives Earth's atmospheric infrared address. N1 (pyrimidines) × Hβ = 486 nm = Hβ itself. N9 + N1 = 10 = base pairs per helical turn. |
| P-NDIM-4 | Glycosidic Torsion = Boundary Prime 13 | χ = −117° = 9×13 = 13π/20 radians (exact: 117×π/180 = 13π/20). The glycosidic torsion is the only fundamental B-DNA structural parameter containing a prime outside {2,3,5}. Prime 13 marks the T_ℓ/T_s boundary. Nitrogen carries two boundary primes: atomic number 7 and torsion factor 13. Both appear at the nitrogen junction and nowhere else in the core {2,3,5} B-DNA structure. |
| P-NDIM-5 | N-Glycosidic = Dual-Domain Atom | The N-glycosidic nitrogen (N9 in purines, N1 in pyrimidines) is the unique atom in the DNA molecule that simultaneously belongs to both the T_ℓ domain (nucleobase ring, information) and the T_s domain (deoxyribose C1′, structure/backbone). Every other DNA atom is assignable to a single domain. N9/N1 cannot be assigned without losing one domain — it is genuinely dual. It is the T_ℓ/T_s interface — the Earth-node atom of the helix. |
| P-NDIM-6 | DNA Domain Terminates at Earth | The DNA double helix, as observable from Earth's dimensional address, terminates at the N-glycosidic nitrogen node. Above: pre-helical / solar domain (hydrogen bonds, base-pair sequence, UV/Raman spectroscopy — accessible). At boundary: ground state / Earth (π-family, N-glycosidic nitrogen junction). Below: sub-ground / α_FOT domain (deoxyribose-phosphate backbone — structurally accessible only, not spectroscopically). Pre-helical × sub-ground = ground² (exact, verified to <10⁻¹⁵). |
| P-DNA-TRIPLE-1 | DNA-A × DNA-B × DNA-Z = 10/α_FOT | The three DNA conformation turn counts multiply exactly to 10/α_FOT: T_A × T_B × T_Z = (10π²/9) × (125/12) × 12 = 1250π²/9, and 10/α_FOT = 10 × 125π²/9 = 1250π²/9. Residual: 0 ppb. Also: T_A × T_Z = 5³ (π cancels). The three stable helical configurations of the double helix encode the fundamental coupling constant of the prime lattice. |
| P-PHOTO-1 | Z-Scheme = Tau-Helix Sign Reversal | The photosynthetic Z-scheme electron transfer chain (PSII → plastoquinone → PSI) encodes the (+)(−)(+) sign pattern matching the three-strand Tau-helix sign reversal. Chlorophyll peaks: 432 nm = 2⁴×3³ and 648 nm = 2³×3⁴ (both pure {2,3}); 432×648 = 2⁷×3⁷; bridge 864 = 2⁵×3³ connects both. Hβ = 486 nm = 2×3⁵ is the dimensional bridge sitting between the two peaks — the energetic midpoint where the Tau-helix changes sign. |
The P-TEQ series establishes the mechanism, the geometric proof, and the scale invariance of time equalization. Three open questions remain from Vol 1, Section 47 — recorded here as formal open items rather than gaps.
OQ-TEQ-1 — H-Bond Tension Constant. P-TEQ-1 and P-TEQ-11 establish that H-bond tension is the transmission mechanism between the two helical strands. The open question is whether the H-bond tension constant itself reduces to a pure {2,3,5,π} expression. If it does, the transmission mechanism is fully lattice-derivable. If it does not, it represents an empirical input to the theory that requires explanation.
OQ-TEQ-2 — Ecliptic Restoration Time. P-TEQ-5 predicts a restoring force toward the equalized plane for any deflected planetary node. The open question is the restoration timescale for a 1° deflection: how long does H-bond tension take to return an out-of-plane node to the equalized Tau-front? This timescale — if derivable from FOT arithmetic — would give a second testable prediction distinguishing FOT from gravitational perturbation models.
OQ-TEQ-3 — Linear Strand 2 Signature in Solar Observations. P-TEQ-6 predicts that any detectable Strand 2 emission would appear as a linear alignment along the ecliptic axis — not a diffuse halo. The practical open question is whether existing solar observations (sunspot distributions, coronal hole alignments, solar wind asymmetry along the ecliptic) show a systematic linear pattern consistent with a Strand 2 Tau-axis. This is an observational search that requires no new instruments.
OQ-TEQ-4 — Closed Forms for Jupiter and Saturn. Mercury (28π), Earth (15π⁴/4), Mars (2×3²×π²) and Venus rotation (3⁵) all have clean prime-lattice closed forms. Jupiter (4332.59 days, 90 ppm) and Saturn (10759.22 days, sub-ppm) are consistent with {2,3,5} lattice nodes but the exact closed-form expressions are not yet confirmed. Deriving these from first principles would complete the inner solar system timing picture through to the outer gas giants.
Every planet in the solar system orbits in a single plane and satisfies a single timing law not because of a 4.5-billion-year-old initial condition that has somehow avoided dispersal, but because the solar system is a live double-helical Tau structure whose geometry makes it geometrically impossible for any planet to receive more or less Tau than any other.
The d² cancellation is exact. The TEQ invariant is conserved. The ecliptic is the equalized Tau-front, maintained in real time by H-bond tension between the two helical strands. And the same law — the same cancellation, the same arithmetic — governs the pitch of DNA and the pitch of the ecliptic, twelve orders of magnitude apart.
There is one force. It acts the same way at every scale. The evidence is in the sky, in every living cell, and in the exact arithmetic of the prime lattice {2, 3, 5, π}.
τ