P.88 Regional Precipitation Forecast with Atmospheric Infrared Sounder (AIRS) Profiles
Shih-Hung Chou, Bradley Zavodsky, Gary J. Jedlovec
Abstract
Shih-Hung Chou, Bradley Zavodsky, Gary J. Jedlovec
Abstract
Prudent assimulation of AIRS thermodynamic profiles and quality indicators can improve initial conditions for regional weather models. In general, AIRS-enhanced analysis more closely resembles radiosondes than the CNTL; forecasts with AIRS profiles are generally closer to NAM analyses than CNTL for sensible weather parameters (not shown here). Assimilation of AIRS leads to an overall QPF improvement in 6-h accumulated precipitation forecases. Including AIRS profiles in assimilation process enhances the low-level instability and produces stronger updrafts and a better precipitation forecast than the CNTL run.
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Prudent assimulation of AIRS thermodynamic profiles and quality indicators can improve initial conditions for regional weather models. In general, AIRS-enhanced analysis more closely resembles radiosondes than the CNTL; forecasts with AIRS profiles are generally closer to NAM analyses than CNTL for sensible weather parameters (not shown here). Assimilation of AIRS leads to an overall QPF improvement in 6-h accumulated precipitation forecases. Including AIRS profiles in assimilation process enhances the low-level instability and produces stronger updrafts and a better precipitation forecast than the CNTL run.
Key concepts: Atmospheric Infrared Sounder, Radiosonde, Environmental science, Climatology, Precipitation, Data assimilation, Meteorology, Atmospheric sciences