WHAT IS DARK MATTER??

A Personal Theory of Dark Matter Original ideas developed in conversation

1. What Dark Matter Is Dark matter is an invisible substance making up approximately 27% of the universe's total mass-energy content, compared to ordinary visible matter which is only around 5%. It cannot be seen directly but its gravitational effects are unmistakable — from galaxy rotation curves to gravitational lensing to the large-scale structure of the universe.
2. Rejecting the Micro Black Hole Theory One candidate for dark matter is primordial black holes — atomically small black holes formed in the early universe. However, this theory was considered and rejected for the following reasons: Hawking radiation predicts that tiny black holes would evaporate extremely quickly, disappearing long before today Mass constraints keep narrowing the viable ranges, making it increasingly difficult for PBHs to account for all dark matter Formation problems make it hard to explain how enough of them would have been produced in the right quantities
3. The "Nons" — A New Particle Hypothesis The proposed alternative is a completely new type of particle called "Nons" — not made of protons, neutrons, or electrons, but something fundamentally different. Key proposed properties include: Dual charged — carrying both positive and negative charge simultaneously, similar to quantum superposition or internal charge structure like quarks inside a neutron Environmentally reactive — their behavior and interactions change depending on surrounding conditions Stable over billions of years — explaining their persistence across cosmic timescales
4. Why Particle Accelerators Cannot Detect Nons The Large Hadron Collider and similar machines have not produced or detected nons — but this is not evidence against their existence. The argument is: Nons are environmentally reactive, meaning they only form under very specific and rare conditions Particle accelerators replicate only one type of high-energy event — collisions — which may not be the right conditions This mirrors how neutrinos were theorized 23 years before detection, and the Higgs boson took 50 years and the most powerful machine ever built to confirm
5. How Nons Are Produced Nons are hypothesized to form only under rare, extreme cosmic conditions. Proposed production mechanisms include: Intense radiation environments — similar to how cosmic rays produce muons that cannot easily be replicated artificially Electrolysis-like charge separation events — extreme charge-separation under cosmic conditions could trigger non production, echoing real dark sector physics theories Large scale collisions — planetary or stellar collisions creating conditions that exist nowhere else, just as neutron star mergers (kilonovas) are the only known source of heavy elements like gold
6. Where Nons Are Most Abundant — The Production Zone Theory Based on their production requirements, nons would be expected to concentrate in the most violent and energetic regions of the universe: Star clusters — extremely dense regions with intense radiation, enormous gravitational friction, and powerful magnetic fields. Notably, dark matter is already observed to concentrate in these regions High radiation zones — around pulsars, magnetars, and gamma ray bursts, the most energetic events in the universe Neutron star and planetary collision sites — catastrophically violent events producing unique conditions, directly analogous to how kilonovas are the only source of certain heavy elements
7. Connection to Black Holes and Parallel Universes The theory extends naturally into black hole cosmology — the hypothesis that black holes create new universes inside themselves. If this is true: The extreme conditions inside black holes would be ideal non production environments Nons produced there would seed new universes with dark matter This would mean every universe contains dark matter, with its quantity determined by the properties of its parent black hole
8. Testable Predictions Higher dark matter density should be found around neutron star merger sites Correlation between historical large-scale collision events and dark matter distribution Unusual particle readings near high-friction, high-radiation astronomical events — Just a curious kid This was made by AI (claude) but all these ideas are mine. I will try to answer any questions