What If NOM Ate LUMI? (Black Hole vs White Hole)

Nom has eaten everything… except Lumi. A white hole is the one thing nothing can get into, so what happens when a black hole tries anyway? On the third try they lock together and tear spacetime open: a WORMHOLE. Fused, Nom and Lumi tunnel through 10 universes, each with a different law of nature (antimatter, a mirror universe, 2D Flatland, a newborn universe, a dark universe, a universe where time runs backward, the Nom-verse, a simulated universe and the multiverse itself), swallowing every one while the multiverse gets less and less stable… Watch the ruler under the wormhole: a wormhole's throat is as wide as a black hole of the same mass (4GM/c²), so every universe it swallows makes it wider. The STABILITY bar above it shows how close the multiverse is to collapsing. Real science, cartoon licence: the masses in universe 1 are real; antimatter, mirror matter, Flatland, the cosmic dawn, dark matter, white holes, many-worlds, the simulation argument and eternal inflation are real ideas (most of them hypotheses, see the sources). A fused, traversable Nom + Lumi wormhole is pure fiction. 86 named things, 54 universes swallowed before the count breaks. Chapters 0:00 Intro: what if Nom ate Lumi? 0:05 10 universes · 1 wormhole 0:15 Universe 1 · Three tries → a wormhole 0:58 Universe 2 · Antimatter universe 1:42 Universe 3 · Mirror universe 2:26 Universe 4 · Flatland 3:10 Universe 5 · Newborn universe 3:54 Universe 6 · Dark universe 4:38 Universe 7 · Backward universe 5:22 Universe 8 · The Nom-verse 6:06 Universe 9 · Simulated universe 6:50 Universe 10 · The multiverse 7:16 Multiverse collapse → MEGA PTOO 7:26 Everything goes back 7:38 Home 7:58 Where should Nom & Lumi go next? Sources • Wormhole: Einstein & Rosen, "The Particle Problem in the General Theory of Relativity", Phys. Rev. 48, 73 (1935); the full (Kruskal) Schwarzschild spacetime joins a black-hole and a white-hole region; such a bridge pinches off too fast to cross (Fuller & Wheeler 1962) — a fused, traversable Nom+Lumi wormhole is fiction • White hole: a white hole is the time-reverse of a black hole: nothing can enter it from outside (general relativity, e.g. Wald, General Relativity, 1984) • Throat width: a Schwarzschild wormhole's throat has the Schwarzschild radius r = 2GM/c², so its width is 4GM/c²; start: Nom 10 + Lumi 10 solar masses (illustrative); each universe torn = ~1.5 × 10^53 kg (ordinary matter of our observable universe, assumed the same in every universe) • Universe 1 masses: NASA Planetary Fact Sheets (Moon, Mars, Saturn, Jupiter, Sun) · Sirius A 2.06 M☉ (Bond et al. 2017) · Crab Nebula ejecta ~4.6 M☉ (Fesen et al. 1997) · Betelgeuse ~16–19 M☉ · Orion Nebula ~2,000 M☉ · Andromeda ~1 × 10^12 M☉, Milky Way ~1.5 × 10^12 M☉ (total incl. dark matter; published estimates vary) • Antimatter: annihilation turns all mass into energy, E = mc²: 1 g + 1 g → 1.8 × 10^14 J ≈ 43 kilotons of TNT; antimatter has the same mass as matter (CERN ALPHA-g 2023: it falls the same way) • Mirror matter: Lee & Yang (1956) suggested mirror partners of particles; "mirror world" by Kobzarev, Okun & Pomeranchuk (1966) — hypothetical • Flatland: Edwin A. Abbott, "Flatland: A Romance of Many Dimensions" (1884) — A Square, Triangles, Pentagons, Hexagons, Circles (priests); in 2+1-dimensional general relativity masses do not attract each other (Deser, Jackiw & 't Hooft 1984) • Newborn universe: recombination ~380,000 years after the Big Bang at ~3,000 K; that light is the cosmic microwave background, now 2.7 K (Planck 2018); first stars ~100–200 million years later; primordial gas ~75% hydrogen, ~25% helium by mass, traces of deuterium and lithium • Dark matter: ~85% of all matter (Planck 2018: Ωc ≈ 0.26 of Ωm ≈ 0.31); seen only through gravity, e.g. gravitational lensing; axions and WIMPs are hypothetical candidates; "dark stars" are hypothetical • Backward time: the white-hole solution is the time reversal of the black-hole solution; a universe with a reversed arrow of time is a thought experiment • Many worlds: Hugh Everett III, "Relative State Formulation of Quantum Mechanics", Rev. Mod. Phys. 29 (1957) — an interpretation, not a proven fact • Simulation: Nick Bostrom, "Are You Living in a Computer Simulation?", Philosophical Quarterly 53 (2003) — hypothesis • Multiverse: eternal inflation: Vilenkin (1983), Linde (1986), Guth — bubble universes are a hypothesis • Cartoon licence: Nom & Lumi, all on-screen sizes, eating universes, the multiverse collapse and the mega-PTOO are illustration; real values above #BlackHole #WhiteHole #Wormhole #Multiverse #NomAndLumi #Universe