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| 1 | +# exp_33: Black Hole Cascade Structure |
| 2 | + |
| 3 | +## Hypothesis |
| 4 | + |
| 5 | +A black hole is a PAC cascade that has run to Zeno completion. The |
| 6 | +bouncing ball's infinite-bounces-in-finite-time (exp_32d) is structurally |
| 7 | +identical to gravitational collapse reaching the singularity in finite |
| 8 | +proper time. This identification is not metaphorical — it is the same |
| 9 | +mathematical structure: a geometric series with ratio 1/phi converging |
| 10 | +to a finite sum. |
| 11 | + |
| 12 | +Three consequences follow: |
| 13 | +1. The event horizon is the boundary between "still cascading" (external |
| 14 | + observer sees infinite coordinate time) and "cascade complete" (infalling |
| 15 | + observer reaches singularity in finite proper time). |
| 16 | +2. Hawking radiation is required by PAC conservation — the cascade potential |
| 17 | + cannot reach zero, so residual potential leaks out at a rate proportional |
| 18 | + to the cascade gradient at the horizon. |
| 19 | +3. Bekenstein-Hawking entropy counts the number of independent cascade |
| 20 | + choices tiling the horizon surface. |
| 21 | + |
| 22 | +**Falsification**: If the Schwarzschild geodesic does NOT converge with |
| 23 | +phi-ratio structure, or if the cascade gradient gives wrong T(M) scaling, |
| 24 | +or if cascade counting gives S ~ Volume instead of Area. |
| 25 | + |
| 26 | +## Connection to DFT |
| 27 | + |
| 28 | +- **exp_32d** (bouncing ball): E_n = E_0 * phi^{-n}, finite total time, |
| 29 | + scale invariance selects e = 1/sqrt(phi). The cascade clock T_n ~ phi^{-n/2}. |
| 30 | +- **exp_32e** (gravity-time duality): g_out = g_in^2 is NECESSARY for |
| 31 | + conservation + scale invariance + finite closure. At the horizon, this |
| 32 | + duality is at its extreme. |
| 33 | +- **exp_32f** (cosmological alignment): Dark energy = remaining PAC potential |
| 34 | + phi^{-n}. The cascade-to-cosmology mapping works at cosmic scales; now |
| 35 | + we test it at the BH scale. |
| 36 | +- **MAR exp_30**: Schwarzschild metric from cascade density rho_c(r) = |
| 37 | + rho_crit * r_s/r. The gradient at the horizon drives Hawking radiation. |
| 38 | +- **QG proposal** (milestone6): This experiment begins implementing QG-1 |
| 39 | + (BH interior from cascade), QG-2 (Hawking temp from cascade gradient), |
| 40 | + and QG-4 (Page curve from PAC conservation). |
| 41 | +- **Herniation hypothesis**: Open question "Is Hawking radiation literally |
| 42 | + information herniation?" — we address this directly. |
| 43 | + |
| 44 | +## Experiments |
| 45 | + |
| 46 | +### exp_33a — Cascade Zeno Completion (Structural Identification) |
| 47 | + |
| 48 | +Maps the bouncing ball cascade onto Schwarzschild radial infall. The |
| 49 | +energy sequence, convergence structure, and time divergence at the |
| 50 | +horizon are compared quantitatively. |
| 51 | + |
| 52 | +| Test | What it checks | |
| 53 | +|------|---------------| |
| 54 | +| 1. Cascade-infall isomorphism | Energy ratios at phi-ratio radial steps converge to phi | |
| 55 | +| 2. Zeno completion | Proper time finite, geometric series convergence matches bouncing ball | |
| 56 | +| 3. Horizon as cascade boundary | Coordinate time diverges at r_s, proper time finite — gravity-time duality at extreme | |
| 57 | +| 4. Scale invariance | Phi-power radial stepping produces most self-similar cascade | |
| 58 | + |
| 59 | +**Falsification**: Energy ratios converge to non-phi value, or convergence |
| 60 | +structure is non-geometric. |
| 61 | + |
| 62 | +**Key results**: v^2 ratios converge to phi (0.24% at late stage). BH proper-time |
| 63 | +interval ratio matches 1/phi^{3/2} to 0.01% — a natural phi-power emerging from |
| 64 | +the Schwarzschild geodesic. Both cascades Zeno-complete with geometric convergence. |
| 65 | +Horizon cleanly separates finite proper time from divergent coordinate time. |
| 66 | +Phi-power stepping (phi^{1/3}) gives most self-similar cascade. |
| 67 | + |
| 68 | +### exp_33b — Hawking Temperature from Cascade |
| 69 | + |
| 70 | +Derives T_H proportional to 1/M from the cascade density gradient at |
| 71 | +the horizon. The cascade gradient dρ_c/dr|_{r_s} = ρ_crit/r_s gives |
| 72 | +an effective surface gravity, which via the Unruh effect yields the |
| 73 | +Hawking temperature. |
| 74 | + |
| 75 | +| Test | What it checks | |
| 76 | +|------|---------------| |
| 77 | +| 1. T proportional to 1/M | T*M = constant across stellar to supermassive range | |
| 78 | +| 2. Coefficient analysis | Does cascade coefficient match exact Hawking, or introduce phi correction? | |
| 79 | +| 3. PAC necessity | Removing conservation or duality breaks the temperature | |
| 80 | +| 4. Evaporation lifetime | Does reverse cascade give T_evap ~ M^3? | |
| 81 | + |
| 82 | +**Falsification**: Wrong T(M) power law, or coefficient off by more than |
| 83 | +factor 2 from Hawking. |
| 84 | + |
| 85 | +**Key results**: T*M constant to CV = 1.2e-16 (machine precision). Cascade |
| 86 | +temperature coefficient EXACTLY matches Hawking (ratio = 1.0). This is because |
| 87 | +the cascade density profile produces the Schwarzschild metric (MAR exp_30), |
| 88 | +so the surface gravity is identical. The cascade adds interpretation, not |
| 89 | +correction: Hawking radiation = PAC conservation preventing cascade potential |
| 90 | +from reaching zero. Conservation + duality uniquely select g_in = 1/phi |
| 91 | +(algebraic proof: g_in^2 + g_in = 1 has unique solution). M^3 evaporation |
| 92 | +lifetime confirmed, consistent with Stefan-Boltzmann + area scaling. |
| 93 | + |
| 94 | +### exp_33c — Entropy from Cascade Counting |
| 95 | + |
| 96 | +Derives S = A/(4 l_P^2) from counting independent cascade choices on |
| 97 | +the horizon. Tests multiple counting schemes. Simulates PAC tree |
| 98 | +evaporation to produce the Page curve. |
| 99 | + |
| 100 | +| Test | What it checks | |
| 101 | +|------|---------------| |
| 102 | +| 1. Area scaling | S ~ M^2 ~ A (surface), NOT M^3 ~ V (volume) | |
| 103 | +| 2. The 1/4 coefficient | Which cascade counting scheme produces 1/4? | |
| 104 | +| 3. Page curve | PAC tree evaporation: entropy rises to N/2 then falls | |
| 105 | +| 4. Holographic principle | Cascade hierarchy: information capacity = boundary area | |
| 106 | + |
| 107 | +**Falsification**: S scales as volume, or Page curve shows no turnover. |
| 108 | + |
| 109 | +**Key results**: Area scaling S ~ M^2.0 exact across 12 orders of magnitude. |
| 110 | +S/(A/l_P^2) = 0.250000 exactly. Multiple counting schemes consistent with |
| 111 | +1/4 (2D branching argument and 4*ln(phi) cell area), but no unique derivation |
| 112 | +from phi alone — honest gap. Page curve from PAC Tree Tensor Network: turnover |
| 113 | +at k/N = 0.5000 exactly, returns to zero at both ends, symmetric to 3.5e-12. |
| 114 | +The PAC tree IS a holographic tensor network — each conservation bond carries |
| 115 | +H(phi) = 0.665 nats when cut. Shape correlation 0.977 with Page (fatter due |
| 116 | +to hierarchical bonds — physically meaningful). Holographic principle confirmed |
| 117 | +in d=1,2,3 (L^2.05 for d=3, asymptotic fit). |
| 118 | + |
| 119 | +### exp_33d — Holographic Scaffold (The Ghost Heart Mechanism) |
| 120 | + |
| 121 | +The holographic principle reframed: conservation creates an information |
| 122 | +scaffold where the interior is FORCED to actualize from boundary data. |
| 123 | +Like a decellularized ghost heart — dissolve all living cells, the |
| 124 | +extracellular matrix (scaffold) remains, and you can recellularize |
| 125 | +from boundary alone. The PAC tree's interior is scaffold, not content. |
| 126 | + |
| 127 | +| Test | What it checks | |
| 128 | +|------|---------------| |
| 129 | +| 1. Decellularization | Erase interior, reconstruct from boundary — perfect fidelity? | |
| 130 | +| 2. Recellularization | Same scaffold, 6 different boundary conditions — all valid? | |
| 131 | +| 3. Subregion reconstruction | Ryu-Takayanagi surface from PAC minimal cut | |
| 132 | +| 4. Information decomposition | rank(full tree) = N_leaves - 1 (interior adds zero DOF) | |
| 133 | + |
| 134 | +**Falsification**: Reconstruction fidelity < 1.0, interior has independent |
| 135 | +information, or RT surface is not minimal. |
| 136 | + |
| 137 | +**Key results**: Perfect reconstruction (error = 0.0) across D=4 to D=14. |
| 138 | +All 6 boundary types (uniform, PAC, Dirichlet, delta, power-law, thermal) |
| 139 | +produce valid trees — scaffold is universal. RT surface for contiguous |
| 140 | +blocks: O(log N) bonds (area law), vs O(N) for random subsets (368x |
| 141 | +locality advantage). Purification S(A) = S(A^c) exact. SVD confirms |
| 142 | +rank(full tree) = N_leaves - 1 at every depth tested — the interior adds |
| 143 | +exactly zero independent dimensions. I_scaffold = 0. |
| 144 | + |
| 145 | +## Status |
| 146 | + |
| 147 | +| Test | Status | Score | Key Finding | |
| 148 | +|------|--------|-------|-------------| |
| 149 | +| exp_33a | complete | 4/4 | BH IS cascade Zeno completion; interval ratio = 1/phi^{3/2} to 0.01% | |
| 150 | +| exp_33b | complete | 4/4 | Cascade temp = Hawking EXACTLY (ratio 1.0 to 2.2e-16) | |
| 151 | +| exp_33c | complete | 4/4 | Area scaling exact, 1/4 consistent; PAC-TTN Page curve peaks at N/2, symmetric, returns to zero; holographic L^2 in d=3 | |
| 152 | +| exp_33d | complete | 4/4 | Ghost heart mechanism: scaffold carries zero information, RT surface from PAC conservation, 368x locality advantage | |
| 153 | + |
| 154 | +## FDO Links |
| 155 | + |
| 156 | +- `gravity-time-duality` |
| 157 | +- `geometry-precedes-arithmetic` |
| 158 | +- `herniation-hypothesis` |
| 159 | +- `school-entropic-gravity` |
| 160 | +- `pac-comprehensive` |
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