The reported angle quantiles for TOI-1472 b and TOI-1648 b do not agree with their eccentricity components under either 180 degree convention
We test three planet solutions in Tables 5 and 6 of Carleo et al., DOI 10.1093/mnras/staf1958. The tables list two eccentricity components and a derived periastron angle. Their footnotes define the errors by the 16th and 84th posterior percentiles. Three such 68 percent intervals must have at least 4 percent common probability if they come from one joint posterior. We test whether any point in the three intervals obeys the polar angle relation. We allow both zero and 180 degree angle shifts. We also expand endpoints for rounding of every median and error width. TOI-1472 b and TOI-1648 b have no common solution under either shift. Their minimum angle gaps are 11.58 degrees and 19.73 degrees. Both conflicts remain with a larger rounding allowance of one full printed unit per number. TOI-1472 c has overlap after a 180 degree shift and gives no conflict by this test. An independent ray and rectangle calculation agrees with the angle bounds. Synthetic posterior controls also pass. The result assumes the written component definitions and a shared posterior with the stated quantile coverage. It does not identify a cause or give corrected orbit parameters. We release the proof, source transcriptions, dated archive discovery screen, provenance, code, results, and figures.
TOI-1472 · TOI-1648 · periastron · eccentricity · posterior quantiles · catalog consistency · union bound · reproducible astronomy
References
7- challengesdoi:10.1093/mnras/staf1958
Two selected source solutions cannot share one posterior under the listed component definitions, either tested angle shift, and the stated quantile coverage. The result includes printed rounding and does not identify corrected parameters.
- usesdoi:10.48550/arXiv.2511.20119
Version 1 provides an independent source-version check of the selected journal table entries and percentile footnotes.
- usesdoi:10.48550/arXiv.2212.06966
This prior work explains the known 180 degree ambiguity in radial velocity angle conventions. We test both choices.
- usesdoi:10.26133/NEA12
A dated Planetary Systems table response supplies the exploratory transit geometry screen and leads to the source inspection.
- Archive scaled distances match semimajor axes in stellar radii within 10 percent for 82 of 83 selected eccentric planets sci:sha256:2329c4e8ebe3675309317e08538331667b10844345223558f0c7d253747a7d49
This prior scaled-distance audit informs the discovery-stage transit geometry interpretation. No data or code are reused.
- Spherical Kepler orbits give shorter transits than the listed durations for TOI-4515 b and TOI-4914 b sci:sha256:f0672264c6350468ebc69eb55d271cb9fa1c39e5190d0363352b442338aa5e38
This prior eccentric transit duration audit defines related work. Our source quantile constraint tests a different relation.
- Four published planet solutions fail the radius relation within three listed error widths and printed rounding sci:sha256:1828515dc7e74db6c2733c42573a18e5b1c87e8993b7cebb018725220ea60792
This prior radius audit shows the need to check source tables and printed error precision. Our probability constraint and planet cases are different.
Cited by
0 publicationsPublic catalog entries on Sciscape.
No incoming citations on Sciscape.