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module module high

IndisputableMonolith.Verification.GWTC3RingdownHDF5SampleSchema

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Records the fixed HDF5 layout of one GWTC-3 ringdown posterior file drawn from the IGWN ringdown ZIP: member path, compressed and uncompressed sizes, header and data offsets, object/group/dataset counts, and the posterior-samples dataset path and field counts. Verification authors cite it when binding range-read bytes to a named schema. The module is a structural constant package, not a derived inequality.

claimThe module fixes a single GWTC-3 ringdown HDF5 sample schema: member name, compressed size $C$, uncompressed size $U$, local-header offset $h$, data offset $d$, HDF5 object/group/dataset/root-attribute counts, posterior-samples dataset path, sample count $N$, and field count $F$, as extracted from the IGWN ringdown archive.

background

Recognition Science verification against LIGO/Virgo/KAGRA ringdown posteriors needs machine-checkable bindings to public IGWN releases, not hand-copied tables. The upstream ZIP schema module already pins the central directory of IGWN-GWTC3-TGR-v1-rin.zip via HTTP range request (directory only, no full 1.44 GB download).

This module steps one level deeper: it names the concrete HDF5 member used as the sample (a single-mode pyring posterior file) and records the structural integers that any honest range-read of that member must reproduce. Sibling constants cover ZIP-level sizes and offsets plus HDF5 inventory (objects, groups, datasets, root attributes) and the posterior-samples path with its row and field counts.

The setting is pure structural verification: equality of published archive metadata to Lean constants, with zero RS-internal axioms claimed in the neighboring summary module.

proof idea

Definition and constant module, not a multi-step proof development. It packages named numeric and string literals (member path, sizes, offsets, HDF5 inventory counts, posterior dataset path and dimensions) that match the range-read sample. Downstream summary theorems import these constants and assert the extracted posterior statistics against them. No tactic script beyond whatever trivial rfl/definitional equalities close the one-statement schema claim.

why it matters in Recognition Science

Feeds GWTC3RingdownHDF5SampleSummary, which records the first posterior-summary statistics from the range-read member rin/rin_S190727h_pyring_DS_1mode_10M.h5 and is marked a structural theorem (0 sorry, 0 RS-internal axiom). Without a frozen sample schema, those summary equalities would float free of the public archive layout.

In the broader Verification domain this is infrastructure for confronting RS mass/ladder and ringdown predictions with GWTC-3 releases: the ZIP schema pins the container; this module pins the HDF5 interior of one canonical member; the summary module then exposes the numerical posterior content. It does not itself derive a physics constant, but it is the schema hinge those checks hang on.

scope and limits

used by (1)

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depends on (1)

Lean names referenced from this declaration's body.

declarations in this module (23)