Article Type:
Research Article

Response of Seasonal Simulations of a Regional Climate Model to High-Frequency Variability of Soil Moisture during the Summers of 1988 and 1993

Song Yang Climate Prediction Center, NOAA/NWS/NCEP, Camp Springs, Maryland

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S-H. Yoo RSIS/Climate Prediction Center, Camp Springs, Maryland

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R. Yang Environmental Modeling Center, NOAA/NWS/NCEP, Camp Springs, Maryland

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K. E. Mitchell Environmental Modeling Center, NOAA/NWS/NCEP, Camp Springs, Maryland

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H. van den Dool Climate Prediction Center, NCEP/NWS/NOAA, Camp Springs, Maryland

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R. W. Higgins Climate Prediction Center, NCEP/NWS/NOAA, Camp Springs, Maryland

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Print Publication:
01 Aug 2007
Collections:
The Global Energy and Water Cycle Experiment (GEWEX)
DOI:
https://doi.org/10.1175/JHM616.1
Page(s):
738–757
Restricted access

Abstract

This study employs the NCEP Eta Regional Climate Model to investigate the response of the model’s seasonal simulations of summer precipitation to high-frequency variability of soil moisture. Specifically, it focuses on the response of model precipitation and temperature over the U.S. Midwest and Southeast to imposed changes in the diurnal and synoptic variability of soil moisture in 1988 and 1993.

High-frequency variability of soil moisture increases (decreases) precipitation in the 1988 drought (1993 flood) year in the central and southern-tier states, except along the Gulf Coast, but causes smaller changes in precipitation along the northern-tier states. The diurnal variability and synoptic variability of soil moisture produce similar patterns of precipitation change, indicating the importance of the diurnal cycle of land surface process. The increase (decrease) in precipitation is generally accompanied by a decrease (increase) in surface and lower-tropospheric temperatures, and the changes in precipitation and temperature are attributed to both the local effect of evaporation feedback and the remote influence of large-scale water vapor transport. The precipitation increase and temperature decrease in 1988 are accompanied by an increase in local evaporation and, more importantly, by an increase in the large-scale water vapor convergence into the Midwest and Southeast. Analogous but opposite-sign behavior occurs in 1993 (compared to 1988) in changes in precipitation, temperature, soil moisture, evaporation, and large-scale water vapor transport.

Results also indicate that, in regions where the model simulates the diurnal cycle of soil moisture reasonably well, including this diurnal cycle in the simulations improves model performance. However, no notable improvement in model precipitation can be found in regions where the model fails to realistically simulate the diurnal variability of soil moisture.

Corresponding author address: Dr. Song Yang, NOAA/Climate Prediction Center, 5200 Auth Road, Room 605, Camp Springs, MD 20746. Email: song.yang@noaa.gov

This article included in the The Global Energy and Water Cycle Experiment (GEWEX) special collection.

Abstract

This study employs the NCEP Eta Regional Climate Model to investigate the response of the model’s seasonal simulations of summer precipitation to high-frequency variability of soil moisture. Specifically, it focuses on the response of model precipitation and temperature over the U.S. Midwest and Southeast to imposed changes in the diurnal and synoptic variability of soil moisture in 1988 and 1993.

High-frequency variability of soil moisture increases (decreases) precipitation in the 1988 drought (1993 flood) year in the central and southern-tier states, except along the Gulf Coast, but causes smaller changes in precipitation along the northern-tier states. The diurnal variability and synoptic variability of soil moisture produce similar patterns of precipitation change, indicating the importance of the diurnal cycle of land surface process. The increase (decrease) in precipitation is generally accompanied by a decrease (increase) in surface and lower-tropospheric temperatures, and the changes in precipitation and temperature are attributed to both the local effect of evaporation feedback and the remote influence of large-scale water vapor transport. The precipitation increase and temperature decrease in 1988 are accompanied by an increase in local evaporation and, more importantly, by an increase in the large-scale water vapor convergence into the Midwest and Southeast. Analogous but opposite-sign behavior occurs in 1993 (compared to 1988) in changes in precipitation, temperature, soil moisture, evaporation, and large-scale water vapor transport.

Results also indicate that, in regions where the model simulates the diurnal cycle of soil moisture reasonably well, including this diurnal cycle in the simulations improves model performance. However, no notable improvement in model precipitation can be found in regions where the model fails to realistically simulate the diurnal variability of soil moisture.

Corresponding author address: Dr. Song Yang, NOAA/Climate Prediction Center, 5200 Auth Road, Room 605, Camp Springs, MD 20746. Email: song.yang@noaa.gov

This article included in the The Global Energy and Water Cycle Experiment (GEWEX) special collection.

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