Denis Botambekov 1, Andrew Heidinger 2, Andi Walther 1, and Nick Bearson 1



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Denis Botambekov 1, Andrew Heidinger 2, Andi Walther 1, and Nick Bearson 1 1 - CIMSS / SSEC / University of Wisconsin Madison, WI, USA 2 NOAA / NESDIS / STAR @ University of Wisconsin Madison, WI, USA The Sixth Asia/Oceania Meteorological Satellite Users' Conference Tokyo - Japan, November 9-13, 2015 1

CIMSS / SSEC / UW-Madison, USA CLAVR-x/CSPP gives access to the DB Community to the NOAA Enterprise Cloud Products that will be operational for JPSS-1 and GOES-R. http://cimss.ssec.wisc.edu/cspp/ 2

More than 1100 people have registered since the first CSPP release in March 2012. 3

CLAVR-x is the Clouds from AVHRR Extended Processing System. Run most of NOAA Enterprise Cloud Algorithms. CSPP gives access to DB community. Operational in NESDIS on AVHRR since 2002. Responsible for AVHRR and GOES cloud products. Serves as the PATMOS-x* climate data set processing system. Climate Data Records hosted at NCDC. This work funded by NOAA JPSS and GOES-R. * Andrew K. Heidinger, Michael J. Foster, Andi Walther, and Xuepeng (Tom) Zhao, 2014: The Pathfinder Atmospheres Extended AVHRR Climate Dataset. Bull. Amer. Meteor. Soc., 95, 909 922. 4

NOAA/NESDIS Cloud Products (examples to be shown). Other NESDIS AVHRR Products (that we run on all sensors) Sensors supported by CLAVR-x in CSPP include: AVHRR, MODIS, and VIIRS. However, many other sensors and products can be generated by the CSPP CLAVR-x: GOES-IM, GOES- NOP, MSG/SEVIRI, MTSAT-1R/2, COMS, and AHI (some adjustments needed). 5

Cloud: Mask, Probability, Phase, Type, Height, Pressure, Temperature, Emissivity, IR-Particle Size, Optical Depth, Particle Size, Ice/Liquid Water Path. Uncertainty Estimates. Surface: SST, TOC NDVI, Land Surface Temperature, Remote Sensing Reflectance (Oceanic Turbidity) Aerosol: Optical depths at 0.63, 0.86 and 1.6 µm. Fluxes: Solar Flux at Surface (Insolation) and Outgoing Longwave Radiation (OLR). Radiances: Calibrated Reflectance, Brightness Temperatures and some statistics useful for filtering products. 6

Naïve Bayesian formulation also used (Heidinger et al., 2012). Determination of test thresholds accomplished through an analysis of CALIPSO data. Compared against PPS and MAIA masks in CREW and other analysis. See Jan Musial s EUMETSAT 2012 paper. SNPP - VIIRS, TS Etau, September 8, 2015 Heidinger, Andrew K.; Evan, Amato T.; Foster, Michael J. and Walther, Andi. A naive Bayesian cloud-detection scheme derived from CALIPSO and applied within PATMOS-x. Journal of Applied Meteorology and Climatology, Volume 51, Issue 6, 2012, 1129 1144. 7

Derive 7 cloud types (less than PPS and MAIA) Algorithm is based on preawg approach. Operates on all sensors. Cloud Types : 1. Clear 2. Probably Clear 3. Near-surface cloud 4. Water cloud 5. Super Cooled Water 6. Opaque Ice 7. Cirrus 8. Overlapped Cirrus 9. Deep Convective 10.Unknown SNPP - VIIRS, TS Etau, September 8, 2015 Pavolonis, Michael J.; Heidinger, Andrew K. and Uttal, Taneil. Daytime global cloud typing from AVHRR and VIIRS: Algorithm description, validation, and comparisons. Journal of Applied Meteorology, Volume 44, Issue 6, 2005, pp.804-826. 8

We run the NESDIS Single Channel Algorithm over land and a split-window NLSST over Ocean. Data is generated without regard to quality flags. Cloud Mask is available to filter data Users can also add filters using cloud probability and other metrics. Aqua - MODIS, TS Etau, September 8, 2015 9

Radiative flux algorithms are taken from PATMOS heritage (NESDIS Climate Project). False Color Image (0.65, 0.86, 11µm) Downward Solar Flux at Surface (W/m2) Upward Longwave Flux at TOA (W/m2) NOAA19 - AVHRR, TS Etau, September 8, 2015 10

False Color Image (0.65, 0.86, 11µm) Cloud Type Cloud Optical Depth Himawari 8 - AHI, TS Etau, September 8, 2015 11

False Color Image (0.65, 0.86, 11µm) Cloud Top Temperature Cloud Top Pressure Himawari 8 - AHI, TS Etau, September 8, 2015 12

Implement combined VIIRS + CrIS processing. Add support for GOES-R ABI, KMA AMI and CMA FY-3. Improve performance of cloud detection and optical depth over snow. Implement GSICS corrections automatically. 13

For any feedback or questions: denis.botambekov@ssec.wisc.edu 14