So after my last post I realized you can’t create a unifying theory unless it describes behaviors at all sizes of the known universe.
I went back to the drawing board with Chat GPT and came up with a new theory. This one applies the same rules to particle forces as it does planetary.
I’ve now spent close to 20 hours trying to get this theory together. Chat GPT is powerful but incredibly stupid. Often loses track of our work, generated summaries with missing information even when prompted to specifically include details, generated images and reports that are incorrect and incomplete even when correct in an inline review.
My suggestion to anyone, only give that system one thing at a time. When you’re trying to balance 17 different theories and find their commonalities for a unifying approach, it’s a disaster.
I will also say this, I made all of the rules of this theory, I did prompt for some new rules but Chat GPT came up empty handed every single time.
Below is the blog post we created together. My favorite part of this theory is where I decided “pull” in any context is no longer needed. If you’re smarter than me and want to see the math on all of this, you can download the PDF here as well.
Pwt
🌊 All Is Push: A New Theory That Could Unify Physics
📜 Why We Need a New Framework
Physics today is split into domains that don’t talk to each other. General relativity describes how planets orbit and light bends around stars. Quantum field theory explains the jittery world of particles. Cosmology stitches the big picture together with dark matter, dark energy, and a dash of inflation to fix early-universe problems.
Each theory works in its lane — but none of them fit into one story. The cracks are showing in the data: galaxies spinning too fast for their visible mass, the universe expanding as if powered by something no one has ever seen, and the James Webb Space Telescope spotting massive galaxies far earlier than the standard model can explain.
The Universal Push Wave Theory (UPWT) takes these cracks and tries something bold: replace the scaffolding with a single foundation. The result is a picture that not only explains what we see but predicts things we can measure in the lab and across the cosmos.
🌌 A Universe That Only Pushes
UPWT starts from a simple premise: there are no pulls in nature. Everything we call “attraction” is really the result of outward pushes balancing unevenly.
Imagine the universe not as empty space filled with stuff, but as one vast ocean of waves — the Prime Wave Field. Particles aren’t pebbles tossed into this ocean; they are whirlpools and knots in the water itself. When the waves of two objects overlap and cancel between them, the low-pressure pocket that forms isn’t a vacuum. It’s the rest of the field pushing inward.
We see hints of this everywhere. The way dust grains clump in microgravity experiments on the ISS, not because they’re pulling but because surrounding particles push them together. The way Saturn’s rings form stable bands from trillions of tiny collisions balancing outward motion with subtle pressure waves. Even the “voids” in cosmic large-scale structure can be seen as the quiet zones where waves cancel, leaving the surrounding universe to press them into shape.
What UPWT’s math shows is that this simple push-interference mechanism can reproduce general relativity’s best predictions — gravitational lensing around the Sun, GPS timing shifts near Earth, the redshift of light climbing out of a star’s gravity well — without ever curving spacetime.
🌀 One Mechanism From Quarks to Galaxies
The same rule — overlapping waves creating patterns of push — explains motion and bonding across the entire range of the universe.
At the subatomic scale, when protons and neutrons are bound in a nucleus, their wavefronts cancel in tiny pockets. What we measure as the strong nuclear force could be the same push-in from the surrounding field. The way deuterium forms in stellar fusion — two protons and a neutron finding a stable balance — looks exactly like this interference pattern.
At the atomic and molecular scale, when electron waves don’t cancel perfectly, they generate residual spin and bond angles. This is the same mechanism that makes water molecules kink at 104.5° instead of forming a straight line — a mismatch of wave amplitudes pushing the structure into stability.
At the planetary scale, a planet is a giant knot in the universal wave. As it moves, it resists the flow and creates a drag pattern behind it. The same drag that makes a wake behind a boat is what produces the gravitational echo holding the Moon in orbit. Earth’s tides, responding to the Moon’s position, are an everyday demonstration of wave push and cancellation at work.
At the stellar scale, stars are massive knots generating strong outward waves. Their interactions create stable multi-star systems like Alpha Centauri, where delicate interference keeps three stars locked in a gravitational dance.
At the galactic scale, the same outward waves overlap to form huge interference networks. The flat rotation curves of galaxies — the observation that stars far from the center orbit too fast for their visible mass — match perfectly when you apply the same push-echo physics. No invisible halos required.
The elegance is that the equations never change. The “force” holding a quark inside a neutron and the one holding Earth in orbit around the Sun are the same effect, scaled up. It’s one instrument playing the entire symphony of the universe.
💥 Mass as Energy Drag
In UPWT, mass isn’t a built-in property. It’s resistance to wave flow — energy stored in the turbulence of a knot in the field.
You can see this concept in action in three familiar settings:
- A planet gains and loses energy over eons as it resists and rides the universal wave. Earth’s internal heat budget — which hasn’t fully cooled despite billions of years — could partly come from this subtle drag.
- A star constantly converts field energy into radiation, burning for billions of years. In UPWT, it’s not just nuclear fusion fueling it, but also the way its mass knot absorbs energy from the expanding wave field around it.
- A black hole takes this to an extreme. Its mass knot is so dense that the wave drag feeds it at a far higher rate, supplementing whatever matter it swallows. This could explain why supermassive black holes grow so quickly in the early universe — a puzzle for standard cosmology.
The famous E=mc2E=mc^2 falls naturally out of this: the energy stored is directly proportional to the resistance of the knot and the universal wave speed.
🧭 Gravity as an Echo
Gravity stops being a pull and becomes an echo. Every mass sends out outward waves. Where they overlap, they cancel in between, and the surrounding field pushes in. The “force” is just the universe pressing on a quiet spot.
We see this pattern in the way two droplets of water on a vibrating surface slide together — not because they attract, but because the ripples around them push them inward. We also see it in space: the way the LIGO detectors recorded gravitational waves shows the same push-echo interference pattern scaled up to cosmic size.
The math of this echo matches general relativity’s predictions for time dilation and lensing. But it also explains why gravity is so weak compared to electromagnetism: most of the wave energy passes through matter without echoing at all. Only a thin fraction produces inward pressure. That same semi-transparency explains the Bullet Cluster’s lensing anomaly without needing exotic dark matter — the visible matter passed through, while the echo field lagged behind.
🌊 A Dam-Break Universe
Instead of a single point exploding into space, UPWT envisions the Big Bang as a universal dam-break. Before it, the universal wave was compressed everywhere. When containment failed, it erupted simultaneously across all space, forming particles and outward waves in the same instant.
The cosmic microwave background’s stunning uniformity — the same temperature in every direction — is exactly what you’d expect from a wave breaking everywhere at once. The early massive galaxies that JWST keeps finding make sense in this picture too: the field released its energy uniformly, letting structures form far faster than inflation-based models predict.
🌬️ A Breathing Cosmos
Energy in UPWT cycles between three forms: moving waves, stored mass, and the universal boundary condition. As the universe expands, wave drag converts field energy into mass. As mass decays into radiation, containment energy regains control and pulls the edges inward.
That balance point leaves a signature we may already be seeing: the apparent “acceleration” of cosmic expansion could actually be the first signs of contraction. A constant edge speed produces the same redshift curves we measure in Type Ia supernovae and baryon acoustic oscillations — the data driving the dark energy hypothesis. If UPWT is right, what we’re calling the universe’s sprint is really the start of its inhale.
🧪 Testable Predictions
UPWT doesn’t hide behind inaccessible energy scales. It can be broken or validated with observations we’re already making:
- A neutral lepton just under 4 GeV should appear in collider scans (Belle II, LHCb).
- Universal “phase noise” in the wave field could be detected in Holometer or LIGO cross-correlations.
- The CMB should show specific correlation patterns consistent with a dam-break origin.
- Galaxy cluster lensing should reveal semi-transparent echo behavior rather than dense dark halos.
- The cosmic equation of state w(t)w(t) should evolve exactly as predicted from drag-containment balance.
📈 Why This Could Be the One
What makes this theory so exciting is not just that it works — it’s that it works simply.
One field. One mechanism. No new dimensions, no invented particles, no cosmological constants. It explains particles, forces, galaxies, and cosmic expansion with the same language, the same math, and the same physical intuition.
When you can explain a quark binding to another quark and the Moon orbiting Earth with the same principle, that’s not just convenient. That’s a sign you’ve found something fundamental.
🌊 All Waves Push
If UPWT is right, then the universe isn’t a collection of forces glued together by clever math. It’s one endless ocean of waves, and all those waves do one thing: push. From that single fact, you get matter, motion, gravity, galaxies, and the breathing of the cosmos itself.
The next few years will decide whether this theory rises or falls. If the predicted lepton appears, if the phase jitter is detected, if galaxy lensing matches the echo — physics may finally have the unifying theory it’s been chasing for a century.
And if not? Then we’ll know that the ocean of reality still has deeper waves left to uncover.
