TEN NUMBERS IN, a UNIVERSE OUT

Temporal Congestion Mechanics has ten inputs. From those, the framework produces gravity, particle masses, the structure of atoms, the rotation of galaxies, the expansion of the universe, the formation of light and matter, the size of the proton, and the strength of every fundamental interaction. Everything in physics, from those ten.

Six numbers physics already had

Six were already in physics — measured, named, used in their own corners of the discipline. TCM uses them as couplings and thresholds inside one equation, each occupying a specific structural role. The numbers are unchanged. What's new is that they all sit in one framework, each doing one job, all on the same medium.

G — the matter-fabric coupling. Measured by Henry Cavendish in 1798 in a torsion-balance experiment that's still demonstrated in physics classes today. It sets the strength with which matter disturbs the fabric. Value: 6.674 × 10⁻¹¹ m³·kg⁻¹·s⁻². The same number Newton used, in the same role of telling matter how strongly to pull on its surroundings — but now inside an equation that also produces atomic structure, quantum behaviour, and the rotation of galaxies. The exact value Cavendish measured 230 years ago still works, untouched.

ℏ — the quantum coupling. Introduced by Max Planck in 1900 when he was working out why hot objects glow the colour they do. It is the size of the discrete packets in which fabric vibrations occur. Value: 1.054 × 10⁻³⁴ J·s. In TCM it appears as the canonical commutator strength on fabric perturbations — what makes quantum behaviour emerge naturally from fabric mechanics. There is no separate "quantum world": quantum behaviour is what the fabric does when its small-scale vibrations are quantised. The same ℏ that governs the glow of a hot iron rod also governs how the electron sits inside an atom, because in TCM both are the fabric doing the same thing at different scales.

α_J — the phase-current coupling. Approximately 1/137. Identified by Arnold Sommerfeld in 1916 — a number that appears throughout nature with no theoretical derivation. Richard Feynman called it "one of the greatest damn mysteries of physics." In TCM it is the strength of interactions between closed-ring matter solitons through their phase-current channel — what holds atoms together, what binds electrons to nuclei, what makes the chemistry of life work. The same mystery number Sommerfeld found, now in a structural role inside one equation. The Bohr radius of every hydrogen atom is the electron's Compton wavelength divided by 2π and by α_J — and TCM produces it to four decimal places from ℏ, α_J, and the electron's catalogue position.

g₀ — the stiffness threshold. The acceleration marking where the fabric switches from its everyday stiffness regime to its weak-gradient regime. Value: 1.2 × 10⁻¹⁰ m·s⁻². This number was already known empirically — it is the acceleration scale that appears in galactic rotation curves at the edges of galaxies, identified by Mordehai Milgrom in 1983. Conventional physics had no account of why it takes the value it does. In TCM, g₀ marks the structural threshold where the weak-gradient regime of the fabric takes over from the linear regime. The same empirical scale, now with a structural meaning.

ρ₀ — the relaxation threshold. Approximately 10⁻²⁶ kg·m⁻³. Connected to the matter density of the present universe and to the redshift at which cosmic acceleration was observed to begin (around z ≈ 0.55). In TCM, ρ₀ is the density threshold at which the fabric transitions from being locked, in dense regions, to being able to relax, in cosmic voids. The same number cosmologists had been calibrating, now playing the role of the fabric's freeze-thaw switch.

ε — the fabric's restoring force. The strength of the pull that brings the fabric back toward its resting state when disturbed. Value: 8.99 × 10⁻¹⁰ J·m⁻³. This one belongs among the known six because it is anchored to a quantity physics had already measured: ε has the same units as what conventional physics calls the cosmological constant Λ, and a value in the same neighbourhood as the observed dark-energy density. But where conventional physics treats Λ as a separate mystery — its theoretical estimate missing the observed value by 120 orders of magnitude, the great embarrassment of modern cosmology — TCM reads the same number as a single mechanical property: the medium's spring constant.

That last number is the one to sit with, because the same coefficient ε produces all of this at once:

• What conventional physics calls dark energy, which TCM identifies as the fabric relaxing back toward its resting state in low-density regions.

• The period of post-merger galactic ringdowns at about 600 million years — the fabric oscillating at its natural frequency.

• The screening length for gravity at cosmic scales, around 29 megaparsecs.

• The late-time deviation from constant cosmological behaviour at the parts-per-thousand level — exactly what next-generation surveys are sensitive enough to detect, and consistent with the DESI 2024-2025 hint that dark energy is thawing rather than constant.

• The effective mass scale of the fabric's lowest oscillation mode — what conventional physics speculates about as a graviton mass — at around 10⁻³¹ electronvolts.

One coefficient. Five independent physical observations. No fine-tuning. The same number doing five jobs because they all flow from the same fabric property — the medium's pull back to rest. The biggest unsolved puzzle in cosmology dissolves into a single mechanical property of the medium of space.

These six were already on the table. Physics had measured them, used them, built technology with them. TCM uses each in a specific structural role, in one equation, instead of in separate frameworks. Same numbers, new home.

Four numbers new to physics

The other four describe properties of the fabric itself — space treated as a physical medium with mechanical properties. These did not exist as concepts before, because conventional physics treats space as empty rather than as a medium. They were not introduced to fit data. They are what the theory required to exist, and their values were then anchored to observation.

α — the fabric's inertia. How much the fabric of space resists having its state changed. Just as a heavy object resists acceleration more than a light one, the fabric has its own resistance to disturbance. Value: 8.16 × 10²¹ kg·m⁻¹. This is the first time in physics that space has been given an inertia of its own — and once you have it, the speed of light falls out as a consequence rather than a postulate, through c = √(K₀/α). Light moves at the speed it does because the fabric has the inertia it has. (Note: this fabric inertia α is a distinct quantity from the fine-structure constant α_J above, despite the shared Greek letter.)

K₀ — the fabric's stiffness. How strongly the fabric resists being bent — its mechanical stiffness against spatial gradients in its own state. Value: 7.334 × 10³⁸ kg·m·s⁻². The medium of space has a stiffness, just as steel has a Young's modulus — and once you write it down, the propagation of light, the propagation of gravitational waves, and the speed limit of the universe all become consequences of the same mechanical property. With α, it fixes the speed of light exactly: √(K₀/α) = 2.998 × 10⁸ m/s.

λ — the fabric's gain. Sets the strength of the outer-region attractor that determines galaxy rotation curves. Value: 8.60 × 10³² kg·m⁻¹. Anchored through the Ward Constant — the asymptotic galactic rotation velocity of 149.67 km/s that every galaxy in the universe approaches at large radius. We name λ the Vera Gain, in honour of Vera Rubin, whose rotation-curve measurements this modulus accounts for. The phenomenology λ produces was partly known: in 1983 Mordehai Milgrom proposed Modified Newtonian Dynamics as an alternative to dark matter, postulating an ad-hoc rule for how gravity behaves at very weak accelerations. TCM derives the same behaviour from the action structure of the fabric, with λ as the constant that comes out. The empirical pattern MOND identified is real — TCM explains why it had to be that way. (TCM identifies what conventional physics calls dark matter as a misreading of the fabric's behaviour in its weak-gradient regime.)

α_W — the framing-current coupling. Approximately 0.42. This is the strength of the fabric's framing-current channel — the way the internal twist structure of matter solitons couples through the fabric — the mechanism behind nuclear binding and the decay of unstable particles. It sits among the new four rather than the known six for an honest reason: its value, 0.42, is not a constant physics had already written down. The known weak-sector couplings take different values; 0.42 is calibrated within the framework to reproduce the weak-sector decay rates and cross-sections. It is anchored to real, measured weak phenomena, but the number itself is TCM's.

These four describe the medium itself: its inertia, its stiffness, its gain, and its framing coupling. They did not exist as concepts in physics before, because nobody treated space as a medium that could have them. Once you do, you find these four are exactly what the medium needs — and you find that several of physics' longest-standing puzzles turn out to be different aspects of the same mechanical properties.

What this means

Ten is small.

The current standard framework of particle physics has roughly 25 free parameters. The standard framework of cosmology adds another six to nine. Supersymmetric extensions add a hundred or more. String theory has a landscape of around 10⁵⁰⁰ possible vacua, each with its own physics.

TCM uses ten. From those: gravity, particle masses, atomic structure, galactic rotation, cosmic evolution, the formation of light and matter, the size of the proton, the strength of every fundamental interaction. None of the inputs is adjusted to fit. None is added to cover an observation the framework would otherwise miss. Six of the ten are not even TCM's to adjust — they are constants physics measured long ago and cannot be moved.

That compression — ten inputs to hundreds of observables — is the signature of right theories, not patched ones. Newton's gravity had one constant and explained the solar system, the tides, and the motion of the Moon. Maxwell's electromagnetism had a handful and explained all electricity, all magnetism, and all light. These are the historical marks of theories that are structurally correct. TCM has the same shape. Whether it is right — whether the universe actually works this way — is for experiment to decide.

What is exciting is not the count. It is what fits inside it.

The proton's mass-to-electron-mass ratio falls out as integer arithmetic on the catalogue: 16 × 115 = 1840, against the observed 1836. The same three integers (16, 1, 1) that fix the proton's mass also fix its size, matching the measured charge radius near 0.84 femtometres. Mercury's perihelion precession of 42.98 arcseconds per century falls out of the Master PDE in its strong-field regime. The flat rotation curves of galaxies — observed for fifty years, conventionally requiring invisible matter — emerge from the fabric's weak-gradient regime with no invisible substance. The accelerating expansion of the universe is the fabric relaxing toward its resting state, with a natural transient profile and a definite future.

All from ten numbers. Six the universe had already shown us. Four describing the medium of space itself — which, in the end, is what those six had been measuring all along.

If TCM is right, we may have crossed the bridge. The instinct that the universe is, at root, simple — that there must be a deep structure underneath everything — has driven every great physicist from Newton through Einstein. Most attempts have failed; most ended up needing more parameters, not fewer. TCM goes the other way. One field, one equation, one medium. Everything else derived.

That is what makes it different. TCM does not propose a new substance or a new fundamental force. It says the substance was always there — we just had to recognise it.

Whether it is right is for experiment to decide. The predictions are specific, falsifiable, and on the public record.