Purpose of project: Reduction of project risks related to quality of cloud detection / masking for multiple applications over land and sea. Will provide.

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Presentation transcript:

Purpose of project: Reduction of project risks related to quality of cloud detection / masking for multiple applications over land and sea. Will provide a Bayesian clear sky probability that can be used by multiple GOES-R applications. Concept: Extension of Bayesian detection methodology (currently successful for GOES SST) to exploit GOES-RRR channel suite, and extending to land Approach: Prototyping on SEVIRI, bootstrapping from existing SEVIRI cloud masks 2011 GOES-R Science Week -Risk Reduction Annual Meeting – September –NSSTC-Huntsville, Alabama

Perceived strengths of Bayesian alternative cloud detection: Increased maintainability from generalized nature of approach combined with use of in-house maintained NWP and CRTM capability Bayesian method is resilient to channel updates (e.g. proxy-to-GOES-R) and/or failures Apparent improved detection rates and decreased false detection rates compared to threshold-based methods (including current GOES-R cloud mask) Figure Left panel shows histograms of SEVIRI-retrieved SST minus Reynolds Daily-OI SST. The black line shows the distribution obtained using the current GOES-R cloud mask while the red line is the result of applying our Bayesian scheme. The right hand side shows a comparison of part of the SEVIRI minus Daily-OI SST. The Bayesian mask has been applied to the left-hand image while the result for the current GOES-R mask is shown on the right GOES-R Science Week -Risk Reduction Annual Meeting – September –NSSTC-Huntsville, Alabama

Year 1 milestones and progress: Project kick-off telecon in July 2011 Establish common version control of software between partners (ongoing) Obtain precursor cloud masks (complete) Exploit precursor cloud masks for Bayesian probability distributions (PDFs) Specify NWP/CRTM simulation capability for reflectance and emissivity Implement simulation and PDFs in software Major Year 2 and 3 milestones Univ. Edinburgh Refine land PDFs iteratively Assess performance against CALIPSO/SEVIRI data base Compare cloud mask impacts on selected retrievals Documented, integrated software transferred to NOAA NOAA Update NOAA software with Univ. Edinburgh updates from Year 1 Derive Ocean PDFs using combination of Geo-SST SEVIRI cloud masks and CALIPSO data Refine Ocean PDFs iteratively Assess performance against CALIPSO/SEVIRI data base Compare cloud mask impacts on selected retrievals Combine with final Land cloud mask software Document and run final tests 2011 GOES-R Science Week -Risk Reduction Annual Meeting – September –NSSTC-Huntsville, Alabama