7 November 2026 · Day 1

Everything Is Vibration: our four rules

This is the beginning of a research diary. The idea we are chasing is simple to say and hard to prove: everything in the universe is a vibration. Your hand, the air, light — all of it. Different vibrations make different things, like different notes on a string.

Below are the four rules we are starting from. Later posts will test them, break them, and fix them. Where something is already proven physics, we say so. Where it is our own guess, we say that too.

Rule 1 — Everything is vibration

Every particle is a tiny vibration. This part is close to accepted physics: in quantum field theory, every particle is a ripple in a field that fills all of space. Louis de Broglie won a Nobel Prize for showing matter behaves like waves.

Rule 2 — Links make space

Vibrations link up with one another. Strong links mean two things are close; weak links mean they are far apart. The pattern of all those links is space. This is our guess, but real physicists explore it too — Mark Van Raamsdonk showed in 2010 that if you cut the links between two regions, space itself would tear apart.

Rule 3 — Energy uses up links

Anything with energy — not just heavy things, but heat and light too — uses up the links around it. Where links are used up, vibrations run slower, and that means time runs slower. This matches a measured fact: clocks tick slower closer to heavy things, even when one clock is just 33 centimetres lower than another.

Rule 4 — Things turn towards the slower side

Picture a row of soldiers marching side by side. If the soldiers on one side walk slower, the whole row turns that way. Particles are vibrations, so they behave like that row: the side closer to a heavy thing is slower, so they turn towards it. That turning is gravity. And because the slowdown is the same for every kind of vibration, everything falls at the same speed — a hammer and a feather drop together, as an astronaut showed on the Moon in 1971.

Where we go next

The honest state of things: so far, these rules mostly reproduce what Einstein already said. That is a good sign — a new theory has to match what we know before it can go beyond it. The real work is to find one place where our rules predict something different, something we could actually measure. That hunt starts in the next post.