What If Gravity Isn’t Fundamental?
Most of physics starts with space and time as the stage, and matter and forces acting on that stage.
VERSF flips that idea.
It starts with something more basic:
👉 reality is built from distinguishable events — facts that become real when they are committed.
Space, time, and even gravity are not assumed. They emerge from how those facts are organised.
From Abstract Idea to Physical Prediction
That sounds philosophical — but this paper forces it into physics.
Instead of staying abstract, we ask a hard question:
👉 If reality really works this way, what does it actually predict?
To answer that, we derive equations for how this underlying “record structure” behaves, and how it interacts with matter.
That gives us a field — something that connects matter to the structure of space itself.
The First Test: When You Push the Theory, It Breaks
We start with the simplest version of the theory and follow it all the way through.
It makes a very specific prediction about how forces behave at large distances.
And that prediction is wrong.
That’s not a problem — it’s a breakthrough.
Because now we know:
👉 the missing physics isn’t random — it’s in a very specific part of the theory.
The Deeper Layer: Reality Changes When It Becomes Hard to Distinguish
The key insight comes from going back to the foundations.
If reality is built from distinguishable facts, what happens when things become barely distinguishable?
At very low gradients — where differences are tiny — the theory shows that the structure of space itself changes.
Not in a dramatic visual way, but in how information is supported:
👉 instead of behaving like a full 3D system, it behaves more like a surface.
This is called dimensional reduction, and it’s not added in — it falls out of the logic of the framework.
Why That Matters
When that shift happens, the equations governing forces change automatically.
And when you follow that through, something remarkable happens:
👉 the theory produces exactly the kind of large-scale behavior we observe in the universe
—not because we tuned it to do so, but because the structure forces it.
The Surprising Link to the Size of the Universe
There’s a tiny acceleration scale where this new behavior kicks in.
Instead of fitting it to data, the theory connects it to something much bigger:
👉 the largest scale the universe can support — the cosmic horizon.
In simple terms:
the behavior of local physics depends on the size of the observable universe.
That’s not an assumption. It drops out of the structure.
What This Really Means
This paper isn’t about explaining galaxies.
Galaxies are just where the theory gets tested first.
What it’s really doing is:
- taking a deep idea about how reality is built
- turning it into equations
- forcing those equations to make predictions
- and showing where they succeed and where they don’t
Where It Goes Next
The framework is now in a very different place than before.
It’s no longer just conceptual.
It’s:
👉 structured
👉 testable
👉 and constrained by its own logic
The next step is to keep pushing it:
- test it against more observations
- tighten the remaining assumptions
- and see whether the structure continues to hold
The Bigger Picture
If this direction is right, it suggests something profound:
👉 gravity, space, and time may not be the foundation of reality — they may be the result of something deeper
And that deeper layer is not made of particles or fields…
…it’s made of information becoming real.