LCM / SMPTS Science Package v1.1 – H1–H47 Hypothesis Atlas, GWOSC Hypothesis-Targeted Calculations and Validation Framework
This record is a new version of the LCM / SMPTS Science Package by Roman Laiker. LCM stands for Light Compression Matter in the context of this project. SMPTS stands for Signal Mapping, Processing and Tracking System. This package presents LCM / SMPTS as an exploratory hypothesis, pattern-analysis and validation framework for complex event data, anomaly structures, coincidence windows, proxy metrics, hypothesis mapping, baseline construction and later ex-ante validation attempts. The current version expands the previous release into a more structured and reviewable package. It contains a preprint manuscript, a complete H1–H47 hypothesis atlas, a compact four-slide overview, GWOSC hypothesis-targeted calculations, GWOSC Event API metadata snapshots, derived event tables, H1–H47 candidate score tables, reproducibility material, SHA256 manifests, Zenodo/PCI preparation notes and formal rights, license, source and status clarifications. The H1–H47 hypothesis atlas is intended as a structured working atlas. It is not presented as a final proof list. The hypotheses are organized as testable or partially operationalizable research paths that can be supported, refined, limited or rejected through reproducible data runs, control windows, baselines, counterexamples, multiple-event comparisons and future ex-ante tests. A central addition in this version is the GWOSC hypothesis-targeted calculation addendum. It uses public GWOSC Event API catalog metadata to generate candidate mappings between gravitational-wave events and selected LCM / SMPTS hypotheses. In the generated package, the addendum extracted 921 raw catalog rows, deduplicated them to 391 event rows and produced 8602 hypothesis-targeted score rows for H1–H47 candidate analysis. These GWOSC calculations are metadata-based candidate triage calculations. They are not a complete raw-strain Cplus / Resonance / PeakRel reanalysis of all GWOSC events and do not constitute final astrophysical validation. Their purpose is to identify which events may be useful next-test candidates for specific hypotheses and which follow-up steps are required, such as raw-strain window analysis, detector-pair comparison, shuffle baselines, control windows or multimessenger context checks. External systems and data environments mentioned in the package include GWOSC / LIGO-Virgo-KAGRA, Rubin Observatory / LSST, AMON, IceCube, USGS ShakeAlert, Copernicus EMS, NASA Disasters, ECMWF, NOAA / SWPC, NASA Space Weather, NASA Prognostics and NIST ICS. These references are used for source attribution, methodological context and possible application mapping only. Their mention does not imply affiliation, endorsement, cooperation, operational integration or completed validation by these organizations. OpenAI ChatGPT was used as an editorial, structuring and scripting assistant during preparation of this version. Roman Laiker remains the named creator, curator and responsible author of the uploaded project material and publication decision. This version should be understood as a citable, reproducibility-oriented working package for review, discussion and further validation.
Authors
- Roman Laiker
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-07-17
- DOI
- https://doi.org/10.5281/zenodo.21413831
- Primary Topic
- Pulsars and Gravitational Waves Research
- Type
- preprint