Theory¶
A mechanical picture of nature's forces
The idea in one breath¶
Empty space isn't empty. It's filled with an unimaginably vast sea of tiny, fast-moving particles called neutrinos. Everything — the pull of gravity, the glow of light, the force holding an atom's core together — comes from this sea pushing on matter. Where the sea is calm and dense it pushes hard; where it flows fast it pushes less. When the push is stronger on one side of an object than the other, the object gets shoved toward the weaker side. That leftover push is what we call a force.
If you've ever seen two boats drift together when the water rushes between them, or felt a shower curtain pull inward when the water runs, you've already seen this effect. We're saying the universe's forces work the same way — through a real, physical medium, following ordinary mechanics.
How to read this page
The main text needs no advanced mathematics. The boxed "For the technically inclined" sections add the equations and references for readers and reviewers who want the rigor.
1. The starting point: a real, massive medium¶
For three centuries, physicists believed light traveled through an invisible medium called the aether. They pictured it as weightless and perfectly still. When the famous Michelson–Morley experiment failed to detect any "aether wind," science concluded the aether didn't exist — and rebuilt physics without it.
Neumekan argues this was the wrong conclusion. The mistake wasn't believing in a medium — it was assuming the medium was weightless and motionless. A medium with mass would be dragged along with the spinning Earth, just like the atmosphere. There would be no aether wind to detect at ground level — which is exactly what the experiment found.
So the aether was never disproved. It was only the massless aether that failed. And we now know a perfect candidate for a massive medium already exists: the neutrino.
For the technically inclined
Experiments have established that neutrinos carry (small) nonzero mass and permeate space. Neumekan identifies the neutrino with the historical aether (the Ether). A massive medium co-rotates with the Earth, so the relative velocity at the surface is ≈ 0 and the Michelson–Morley fringe shift vanishes — the null result is consistent with a massive aether, not evidence against it.
2. The building blocks¶
The whole theory is built from one object — a single neutrino particle — given a few simple properties:
- It has mass and takes up space. Tiny, but real.
- It moves fast — near the speed of light — and collides with its neighbors.
- It spins, like a thrown ball.
That's it. From mass, motion, collision, and spin, three behaviors emerge that do all the work:
| Behavior | What it means | What it produces |
|---|---|---|
| Pressure | crowded, fast particles push outward | the "stiffness" of space |
| Flow | the sea drifts from crowded toward emptier regions | gravity |
| Spin | rotating particles carry sideways ripples | light and electromagnetism |
For the technically inclined
Aether particles are modeled as rigid elastic spheres with equal mass \(m_a\) and diameter \(D_a\), but variable occupied volume \(V_a\), so the density \(\rho = m_a/V_a\) varies in space. Collision pressure follows kinetic theory, \(p = \tfrac{1}{3}\rho\, v_{ca}^2\). Because the moment of inertia of a sphere scales as \(m_a D_a^2\) and \(D_a\) is tiny, collisions impart an enormous spin — the origin of magnetic effects. Collision and spin speeds are random and follow the Maxwell–Boltzmann distribution, which the framework derives mechanically from Newton's laws.
3. How a force arises¶
Picture the sea of neutrinos as a fluid, and use the same physics that lifts an airplane wing or drifts those two boats together:
- Pressure is just crowding and speed. More neutrinos, moving faster, push harder.
- The sea flows from crowded regions toward emptier ones.
- Fast flow pushes less sideways. Where the sea speeds up, its sideways push drops — the same trade-off that lifts a wing.
When the push is uneven across an object, the object is shoved toward the weaker-push side. Every force in this theory is a version of that single idea.
4. The four forces, one mechanism¶
Gravity¶
A massive body sets the surrounding sea flowing. By the wing-lift trade-off, the side where the sea flows faster pushes less, so the net push drives bodies together. Worked out properly, this leftover push comes out as an attractive force that falls off as \(1/r^2\) — Newton's law of gravity, but now with a physical cause instead of unexplained "action at a distance."
For the technically inclined
The steady neutrino density satisfies the Laplace equation \(\nabla^2 E = 0\), giving a \(1/r\) field. The Laplace pressure alone integrates to zero net force; adding the Bernoulli flow correction (with the aether energy–pressure relation \(p=\tfrac{2}{3}E\)) yields the inverse-square force \(\propto 1/r^2\). Full derivation: Lin & Lin (2014), Substantial Aether Theory — Universal Gravity Force.
Light and electromagnetism¶
A gas normally carries only push-pull (sound-like) waves — not the sideways waves that light requires. That was a classic objection to any aether. Neumekan's answer: because neutrinos are tiny, they spin easily, and spinning particles transmit a sideways twisting stress. That twist propagates as a transverse wave — light — and the math reproduces Maxwell's equations exactly.
For the technically inclined
Particle spin enters a constitutive law extending Navier's elastic-solid law with self-spin and volume-rotation terms. The curl (rotational) part of the equation of motion carries a transverse shear wave with speed \(c = \sqrt{\mu/\rho}\), shown to be identical to the free-field Maxwell equations. The electric field corresponds to averaged translation, the magnetic field to averaged spin. See Lin & Lin (2014), Substantial Aether Theory — Electromagnetic Wave.
Strong and weak nuclear forces¶
Now put two neutrons side by side. Each drains the sea around it, so the gap between them flows faster than their outer sides. Faster flow in the middle means less push from the middle — so the outside push wins and the two neutrons are squeezed together. That squeeze is the strong nuclear force that binds the nucleus. Nuclear decay, in turn, is the sea's pressure occasionally pushing a neutron back out.
Honest status
Gravity and electromagnetism are derived in full. The strong and weak forces are so far explained qualitatively — a compelling picture, but not yet a complete derivation. This is the active frontier of the work.
5. A number the theory actually predicts¶
A good theory makes numbers, not just stories. Treating neutrinos as a gas that shares space with ordinary air molecules, kinetic theory lets us calculate the neutrino's mass from known gas properties:
This lands below the experimental upper limit set by neutrino detectors — so it's consistent with measurement, and it's falsifiable.
Stated honestly
The same calculation implies a neutrino collision speed faster than light, and the neutrino's spin behavior is only bounded, not known. We flag these openly rather than hide them — they are real challenges, not footnotes.
For the technically inclined
From \(P=\tfrac13\rho u^2\) at equal pressure–volume with equal particle counts (Avogadro), the mass–speed relation is \(m_\nu = m_{O}\,(u_{O}/u_\nu)^2\). Using oxygen as the reference species and the wave–collision-speed relation \(u = c\sqrt{3/\gamma}\) gives the range above. Source: Lin & Lin (2023), Neutrino Mass Estimation by Kinetic Theory; consistent with the KamLAND-Zen upper limit.
6. Bold, falsifiable predictions¶
A theory is only as good as the risks it takes. Neumekan makes distinctive predictions that depart sharply from mainstream physics:
- A repulsive force between two stars (two sources of the sea), and likewise between two black holes (two sinks).
- Black holes are super-heavy nuclei — far heavier than any natural atom.
- A black hole can explode into a new star under the pressure of a nearby star.
- Radioactive waste decays faster near the Sun, where the neutrino pressure is higher.
If these fail, the theory is wrong — and that is exactly what makes them worth testing.
7. From force to atoms and molecules¶
The same calculation that gives the force between two neutrons can be pushed further:
- Hold the background pressure constant (ignore gravity) and the neutron-pair calculation reproduces patterns that look like the electron clouds quantum mechanics draws around a nucleus — but here they fall straight out of a mechanical fluid.
- Scale up to many nuclei and the method, in principle, builds toward molecular structure — far more complex, but the same physics throughout.
8. What's still open¶
We're honest about the gaps. To finish the force calculation, three quantities still need to be pinned down — by experiment or further theory:
- How strongly the sea "grabs" a neutron as it flows past (a friction figure).
- How dense the sea is right at a neutron's surface.
- How dense the background sea is across the cosmos.
These aren't hidden problems — they're the clear next questions, and naming them is how the theory moves forward.
For the technically inclined
The two-neutron problem is solved as a superposition of low-order solid-harmonic modes \((l,m)\) centered on each neutron, with boundary conditions on the neutron surfaces; the force is the surface integral of the resulting non-uniform Bernoulli pressure. The three undetermined boundary parameters are the neutrino–neutron friction coefficient, the surface neutrino density, and the cosmological background density. A numerical two-neutron example is implemented in the NeuMekan simulation code.
Where to go next¶
- Publications — the peer-reviewed papers behind every derivation above
- About — the people and the decades of work
- Contact — questions, review, or collaboration welcome