1 The GOES-R Rainfall Rate / QPE Algorithm Status May 1, 2011 Presented By: Bob Kuligowski NOAA/NESDIS/STAR.

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Presentation transcript:

1 The GOES-R Rainfall Rate / QPE Algorithm Status May 1, 2011 Presented By: Bob Kuligowski NOAA/NESDIS/STAR

2 Outline  Algorithm Description  Enhancements since Version 5  Updated Validation Results  Proving Ground Support  Connections with JPSS and GPM  Planned Enhancements  Summary

3 Algorithm Description The GOES-R Rainfall Rate algorithm produces estimates of instantaneous rain rate every 15 min on the ABI full disk at the IR pixel resolution. The rain rates are derived from the ABI IR bands, calibrated against rain rates from MW instruments. This allows the rapid refresh and high spatial resolution of IR data from GEO while trying to capture the accuracy of MW rain rates from LEO. A rolling-value matched MW-IR dataset with a fixed number of pixels with rates of at least 1 mm/h is maintained; the calibration is updated whenever new MW rain rates become available and then applied to independent ABI data.

4 Algorithm Summary Calibration / retrieval involves the following steps: Discriminant analysis is used to select the best two rain / no rain predictors and coefficients based on matches with the MW rain rates; Linear regression is used to select the best two rain rate predictors and coefficients (including nonlinear transformations of the predictors) based on matches with the MW rain rates. To correct regression-induced distortions in the distribution, the derived rainfall rates are matched against the training MW rain rates to create a lookup table (LUT) for adjusting the resulting rain rates. Separate calibrations are used for each 30º latitude band and 3 different cloud types (determined using BTDs)

5 Enhancements since Version 5 Applied a 9x9 smoother BTD fields for computing rain type Rain type field can contain pixel-sized features when near threshold value; results in non-physical features in rain rate field Increased the required amount of training data from 1,000 / 5,000 pixels ≥ 1 mm/h to 15,000 ≥ 2.5 mm/h Addresses occasional instability in rain rate time series due to succession of overfit calibrations Rainfall rate calibration now requires a minimum correlation coefficient of 0.15 to update calibration Prevents occasional significant changes in calibration from one time period to the next Additional details in the Rainfall Rate poster

6 Enhancements since Version 5 Impact of 9x9 BTD smoother Without smootherWith smoother

7 Enhancements since Version 5 Impact of Increased Training Data Requirements

8 Updated Validation Results Validation versus TRMM PR (covering 35ºS – 35ºN only) for 20 days of data: 6-9 th of January, April, July, and October 2005: (Note that these stats use the best match within a 10-km radius to account for spatial displacements of surface rainfall with respect to the cloud tops.)(Note that these stats use the best match within a 10-km radius to account for spatial displacements of surface rainfall with respect to the cloud tops.) Presumed improvements actually degrade performance relative to spec—investigating a bias increase of unknown cause that is probably the reasonPresumed improvements actually degrade performance relative to spec—investigating a bias increase of unknown cause that is probably the reason These changes are NOT reflected in the current Harris code!These changes are NOT reflected in the current Harris code! mm/hF&PSVersion 5New Version AccuracyPrecisionAccuracyPrecisionAccuracyPrecision Rainfall Rate

9 Proving Ground Support A version of the GOES-R Rainfall Rate algorithm without the 8.5- and 12.0-µm bands has been running in real time on GOES-East and –West since October Supports GOES-R Proving Ground activities (via SPoRT) and provides a platform for real-time experimentation with more robust ground validation data than available over Europe and Africa.

10 Connections with JPSS and GPM The MW rain rate data used in the GOES-R Rainfall Rate algorithm come from the operational MWCOMB microwave composite produced by NWS/CPC. The MWCOMB product will continue to evolve and improve leading up to and during the GPM era as MW retrieval techniques continue to improve. These improvements will likewise improve the GOES-R Rainfall Rate product, though changes to MWCOMB should be transparent from a processing perspective.

11 Possible Enhancements Apply calibration coefficients derived by Zhanqing Li (UMCP) et al. in previous GOES-R Risk Reduction work to real-time GOES cloud property information and evaluate impact on warm-cloud light rainfall which typically IR and MW have difficulty detecting. Experiment with a model PW / RH adjustment to rain rates to account for moisture availability and subcloud evaporation of hydrometeors. Continue experiments with orographic rainfall modulation. Incorporate findings from GOES-R Risk Reduction work by Adler et al., Rabin, Dong and Li, etc.

12 Summary  The GOES-R Rainfall Rate algorithm produces estimates of instantaneous rainfall rate at the full IR pixel resolution, using MW rain rates as a calibration standard.  Enhancements have been made since v5 (but not implemented in the Harris code) to remove non-physical rainfall and calibration features; performance vs. spec actually degraded somewhat and the cause is still being investigated.  A version of the algorithm without the 8.5- and 12.0-µm bands is running in real time on the GOES imagers to support Proving Ground activities and additional algorithm development.  Additional possible pre-launch enhancements to the algorithm are being investigated and tested.  Since the algorithm uses MW rain rates as a calibration source, JPSS and GPM enhancements will improve the Rainfall Rate algorithm while being transparent from a processing perspective.