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Openai/69596681-3f7c-8006-b9fd-01d9d8191763
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=== Assistant: Below are explicit numerical point sets you can plot or tabulate to demonstrate and interrogate the proof. === Below are explicit numerical point sets you can plot (or tabulate) to demonstrate and interrogate the proof. They are chosen to isolate each logical claim: naive collapse, repaired viability, and boundary tightness. No graphics included—only coordinates. ==== Residual bound (constant): ==== ∣r∣max=0.9|r|_{\max}=0.9∣r∣max=0.9 Precision index: p∈N0p\in\mathbb{N}_0p∈N0 ==== Tolerance law: ==== τnaive(p)=τ0 2−p,τ0=3.0\tau_{\text{naive}}(p)=\tau_0\,2^{-p},\quad \tau_0=3.0τnaive(p)=τ02−p,τ0=3.0 Decision rule: COLLAPSE if ∣r∣max>τ(p)\text{COLLAPSE if } |r|_{\max}>\tau(p)COLLAPSE if ∣r∣max>τ(p) Points (p, τ(p)) <syntaxhighlight>(0, 3.0000) (1, 1.5000) (2, 0.7500) ← first violation (0.9 > 0.75) (3, 0.3750) (4, 0.1875) </syntaxhighlight> Overlay line (constant): <syntaxhighlight>|r|max = 0.9 </syntaxhighlight> Inference demonstrated by points: Finite p'' exists (here p''=2). Collapse is inevitable. ==== Tolerance law: ==== τIR(p)=τ\''+(τ0−τ\'')2−p,τ\''=0.9, τ0=3.0\tau_{\text{IR}}(p)=\tau^\''+(\tau_0-\tau^\'')2^{-p},\quad \tau^\''=0.9,\ \tau_0=3.0τIR(p)=τ\''+(τ0−τ\'')2−p,τ\*=0.9, τ0=3.0 Points (p, τ(p)) <syntaxhighlight>(0, 3.0000) (1, 1.9500) (2, 1.4250) (3, 1.1625) (4, 1.03125) (5, 0.965625) (6, 0.9328125) (∞, 0.9000) </syntaxhighlight> Overlay line (constant): <syntaxhighlight>|r|max = 0.9 </syntaxhighlight> Inference demonstrated by points: For all finite p, τ(p) ≥ |r|max. No collapse ever occurs. ==== Tolerance law (minimal floor): ==== τmin(p)=∣r∣max+C 2−p,C=0.1\tau_{\text{min}}(p)=|r|_{\max}+C\,2^{-p},\quad C=0.1τmin(p)=∣r∣max+C2−p,C=0.1 Points (p, τ(p)) <syntaxhighlight>(0, 1.0000) (1, 0.9500) (2, 0.9250) (3, 0.9125) (4, 0.90625) (5, 0.903125) (∞, 0.9000) </syntaxhighlight> Inference demonstrated by points: This is the tightest viable scaling. Any smaller floor collapses. ==== Tolerance law: ==== τ(p)=0.9−0.05⋅2−p\tau(p)=0.9-0.05\cdot 2^{-p}τ(p)=0.9−0.05⋅2−p Points (p, τ(p)) <syntaxhighlight>(0, 0.8500) ← immediate violation (1, 0.8750) (2, 0.8875) </syntaxhighlight> Inference demonstrated by points: If liminf τ(p) < |r|max, collapse occurs (often immediately). ==== Using: ==== p∗=⌈log2 (τ0∣r∣max)⌉p^*=\left\lceil\log_2\!\left(\frac{\tau_0}{|r|_{\max}}\right)\right\rceilp∗=⌈log2(∣r∣maxτ0)⌉ ''Points (τ0, p'')* <syntaxhighlight>(1.0, 1) (1.8, 1) (2.0, 2) (3.0, 2) (5.0, 3) (10.0, 4) </syntaxhighlight> Inference demonstrated by points: Higher τ0 delays collapse but never prevents it if τ(p)→0. ==== - Sets A & D instantiate the necessity direction: if τ(p)→0 or liminf τ(p)<|r|max ⇒ finite p*. ==== '' Sets B & C instantiate the sufficiency direction: nonzero IR floor τ''≥|r|max ⇒ ∀p STAND. * Set E shows the collapse boundary explicitly as a function of τ0 (diagnostic power). If you want, I can export these point sets as CSV, NumPy arrays, or LaTeX tables for direct inclusion. © Robert R. Frost 2026-01-03
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