A Theory of Everything, by Matthew Gelfman and Melissa Gelfman
Dynamic Relational Transitioning Geometry
A relational, entanglement-based picture of the universe. Particles are there one by one, but what matters is how they relate, and those relationships form the matrices the theory is built from. It reproduces known physics from a few plain principles, and it makes predictions that experiments can check.
TRPG does not try to replace anyone. In Matthew's words, the goal is to show that "all the great physicists were correct but seeing the same thing in different perspectives."
Relationships matter most
Each particle is real on its own, but the universe is how particles relate. Every particle compared with every other gives the first matrix. The proton sits at the scale of everything we physically see, so it governs our view.
Space is a full bag
Space is like liquid filling a sealed bag. Nothing sits between the liquid and what is in it, because the liquid is space. A glass that is half water and half air is still a full glass.
Containment decides
Outward push against inward pull decides whether something is a particle, a star or a black hole. A star is under-contained and a black hole is over-contained.
Entanglement comes first
Gravity is a byproduct of entanglement. Uncertainty means we see one side of a single geometry at a time. Entangled partners stay joined through the geometry.
What follows, with numbers
| Result | TRPG | Measured |
|---|---|---|
| Bending of starlight by the Sun | 1.752″ | 1.75″ |
| Age of the universe | 13.79 billion years | 13.79 ± 0.02 |
| Proton containment strength B, from the proton and Delta masses | 60 (57–64) MeV/fm³ | 1975 bag fit: about 57 |
| Heaviest neutron star (B from the proton, quark pairing 70–90 MeV) | 2.00–2.18 solar masses | at least 2.0 |
| Neutron star squeeze in a merger (tidal Λ, GW170817) | 440–570 | below about 580 |
| Electron, muon and tau masses | 3 masses from 1 scale | match to 0.003% |
| Cabibbo angle, from quark masses (already known: Gatto, Sartori and Tonin, 1968) | 0.2242 | 0.2243 |
| Tau lifetime, from the muon (already known: lepton universality) | 289.7 fs | 290.3 fs |
| Quark charges, given three colours (anomaly cancellation) | +2/3, −1/3 | same |
| Black hole ringdown (GW150914) | 250 Hz, 4.0 ms, no echoes | matches |
The predictions that could prove it wrong
Neutrinos follow the same relational rule as the electron, muon and tau. That rule requires normal ordering, with masses of 0.36, 8.7 and 50.1 meV, which add up to 0.0592 eV.
The JUNO experiment and sky surveys such as DESI can test this within a few years. If neutrinos turn out to have inverted ordering, or a clearly different total, this part of TRPG is wrong. The total is only just above the smallest total normal ordering allows (0.0588 eV), so the most distinctive number is the lightest mass, 0.36 meV.
Second, with B set by the proton, neutron stars pass both tests only if quarks in their cores pair up with a pairing gap of 70 to 90 MeV. Theory estimates 50 to 150 MeV, and it has not been measured yet.
Where it stands, honestly
Against the nine requirements a Theory of Everything must meet, TRPG scores 7 PASS and 2 PARTIAL, checked line by line on 14 November 2026 with all 24 scripts rerun. No known measurement contradicts it. The two open problems are deriving the six quark masses from first principles (one pattern was tested and dropped because it missed by about 7 standard deviations), and deriving the three force groups. Neither has been solved by anyone in physics, and neither is forced here. Every idea in the full record carries one of five labels: Works, Already known, Close to real research, Untested, or Fails.