Modern physics is incredibly powerful—but it has a quiet blind spot.
We write down equations for things like wave functions, fields, and spacetime geometry. These equations predict experiments with astonishing accuracy. But if you ask a simple question—
What are these things actually about?
—the answers get vague.
What is a wave function a wave of?
What is spacetime made of?
This paper takes a bold step: it gives a concrete answer.
A different starting point: facts
Instead of starting with particles or fields, the VERSF framework starts with something more basic:
facts
A fact is something that has happened and cannot be undone—a measurement outcome, a recorded event, a piece of information that is now part of reality.
Before a fact forms, there are possibilities.
After it forms, there is a record.
The idea is simple but powerful:
Reality is built from the accumulation and flow of these irreversible facts.
Tracking how facts move
If facts are the basic building blocks, then we can ask:
How do they appear?
How do they move?
How do they accumulate?
To answer that, the paper introduces a new concept:
👉 a record current
This is a way of tracking:
- how many facts exist in a region
- how they flow from place to place
- and where new ones are being created
From just a few very basic assumptions—like the idea that you can’t distinguish infinitely many things at once, and that facts can’t be undone—the paper shows something striking:
The flow of facts must obey a very specific conservation law.
Not because we chose it—but because there’s no other way for the bookkeeping to work.
From bookkeeping to physics
Once you know what must be conserved, the next question is:
What is the simplest possible way this system can evolve?
Under a small set of clearly stated assumptions, the paper shows that there is only one answer:
The dynamics must follow the same equation used for a basic quantum field.
In other words:
The familiar equations of physics reappear—not because we assumed them, but because they are the simplest consistent way for facts to behave.
Measurement without mystery
One of the most interesting parts of the paper is how it treats measurement.
Instead of something mysterious—like a wavefunction “collapsing”—measurement is described as a physical process:
different possible outcomes compete, and one becomes real when it forms a stable, irreversible record.
The probability of each outcome is tied directly to how likely it is to “win” that process.
So the usual quantum probabilities aren’t just rules we impose—they emerge from how reality actually produces facts.
A shift in perspective
The deeper message of the paper is this:
Physics may not be about particles or waves at all—it may be about the creation and flow of facts.
And if that’s true, then many of the structures we see in physics—conservation laws, field equations, even quantum behaviour—aren’t arbitrary choices.
They are what you get when reality is forced to:
- keep track of what has happened
- preserve that information
- and do so consistently across space and time
The takeaway
Boiled down, the paper is saying:
If you want a universe where facts can form and persist, there are very few ways it can behave—and the laws of physics we know may be one of those unavoidable ways.