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    A Revised Force–Restore Model for Land Surface Modeling

    Source: Journal of Applied Meteorology:;2004:;volume( 043 ):;issue: 011::page 1768
    Author:
    Ren, Diandong
    ,
    Xue, Ming
    DOI: 10.1175/JAM2161.1
    Publisher: American Meteorological Society
    Abstract: To clarify the definition of the equation for the temperature toward which the soil skin temperature is restored, the prediction equations in the commonly used force?restore model for soil temperature are rederived from the heat conduction equation. The derivation led to a deep-layer temperature, commonly denoted T2, that is defined as the soil temperature at depth πd plus a transient term, where d is the e-folding damping depth of soil temperature diurnal oscillations. The corresponding prediction equation for T2 has the same form as the commonly used one except for an additional term involving the lapse rate of the ?seasonal mean? soil temperature and the damping depth d. A term involving the same also appears in the skin temperature prediction equation, which also includes a transient term. In the literature, T2 was initially defined as the short-term (over several days) mean of the skin temperature, but in practice it is often used as the deep-layer temperature. Such inconsistent use can lead to drift in T2 prediction over a several-day period, as is documented in this paper. When T2 is properly defined and initialized, large drift in T2 prediction is avoided and the surface temperature prediction is usually improved. This is confirmed by four sets of experiments, each for a period during each season of 2000, that are initialized using and verified against measurements of the Oklahoma Atmospheric Surface-Layer Instrumentation System (OASIS) project.
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      A Revised Force–Restore Model for Land Surface Modeling

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    http://yetl.yabesh.ir/yetl1/handle/yetl/4216284
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    contributor authorRen, Diandong
    contributor authorXue, Ming
    date accessioned2017-06-09T16:47:20Z
    date available2017-06-09T16:47:20Z
    date copyright2004/11/01
    date issued2004
    identifier issn0894-8763
    identifier otherams-74097.pdf
    identifier urihttp://onlinelibrary.yabesh.ir/handle/yetl/4216284
    description abstractTo clarify the definition of the equation for the temperature toward which the soil skin temperature is restored, the prediction equations in the commonly used force?restore model for soil temperature are rederived from the heat conduction equation. The derivation led to a deep-layer temperature, commonly denoted T2, that is defined as the soil temperature at depth πd plus a transient term, where d is the e-folding damping depth of soil temperature diurnal oscillations. The corresponding prediction equation for T2 has the same form as the commonly used one except for an additional term involving the lapse rate of the ?seasonal mean? soil temperature and the damping depth d. A term involving the same also appears in the skin temperature prediction equation, which also includes a transient term. In the literature, T2 was initially defined as the short-term (over several days) mean of the skin temperature, but in practice it is often used as the deep-layer temperature. Such inconsistent use can lead to drift in T2 prediction over a several-day period, as is documented in this paper. When T2 is properly defined and initialized, large drift in T2 prediction is avoided and the surface temperature prediction is usually improved. This is confirmed by four sets of experiments, each for a period during each season of 2000, that are initialized using and verified against measurements of the Oklahoma Atmospheric Surface-Layer Instrumentation System (OASIS) project.
    publisherAmerican Meteorological Society
    titleA Revised Force–Restore Model for Land Surface Modeling
    typeJournal Paper
    journal volume43
    journal issue11
    journal titleJournal of Applied Meteorology
    identifier doi10.1175/JAM2161.1
    journal fristpage1768
    journal lastpage1782
    treeJournal of Applied Meteorology:;2004:;volume( 043 ):;issue: 011
    contenttypeFulltext
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