Kepler Data Validation I -- Architecture, Diagnostic Tests, and Data Products for Vetting Transiting Planet Candidates
Joseph D. Twicken, Joseph H. Catanzarite, Bruce D. Clarke, Forrest, Girouard, Jon M. Jenkins, Todd C. Klaus, Jie Li, Sean D. McCauliff, Shawn E., Seader, Peter Tenenbaum, Bill Wohler, Stephen T. Bryson, Christopher J., Burke, Douglas A. Caldwell, Michael R. Haas

TL;DR
This paper details the architecture, diagnostic tests, and data products of the Kepler Data Validation pipeline, which identifies and characterizes transiting planet candidates from four years of Kepler data, aiding in the discovery of Earth-like planets.
Contribution
It introduces the Kepler Data Validation architecture, diagnostic tests, and data products, and discusses pipeline modifications supporting the TESS mission.
Findings
Validated 200,000 stellar targets with light curves.
Generated data products for transiting planet candidates.
Implemented diagnostic tests to discriminate false positives.
Abstract
The Kepler Mission was designed to identify and characterize transiting planets in the Kepler Field of View and to determine their occurrence rates. Emphasis was placed on identification of Earth-size planets orbiting in the Habitable Zone of their host stars. Science data were acquired for a period of four years. Long-cadence data with 29.4 min sampling were obtained for ~200,000 individual stellar targets in at least one observing quarter in the primary Kepler Mission. Light curves for target stars are extracted in the Kepler Science Data Processing Pipeline, and are searched for transiting planet signatures. A Threshold Crossing Event is generated in the transit search for targets where the transit detection threshold is exceeded and transit consistency checks are satisfied. These targets are subjected to further scrutiny in the Data Validation (DV) component of the Pipeline.…
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