• Nenhum resultado encontrado

Combining surface reanalysis and remote sensing data for monitoring evapotranspiration

N/A
N/A
Protected

Academic year: 2017

Share "Combining surface reanalysis and remote sensing data for monitoring evapotranspiration"

Copied!
41
0
0

Texto

Loading

Imagem

Table 1. Model parameters and equations for the Berkeley Model, where λ = T OPT , m 1 = 1.2, m 2 = 1.2, b 2 = −0.05, and β = 1.0.
Table 2. Model parameters and equations for the Noah Model, where k is Beer’s Law extinc- extinc-tion coefficient, LAI is the leaf area index, r is the atmospheric resistance, R C is the stomatal resistance, C h is the surface exchange coefficient for heat
Table 3. Eight micrometeorological stations throughout sub-Saharan Africa. Ecosystems are identified with the IGBP convention: croplands/natural vegetation mosaic (CRO), evergreen broadleaf forest (EBF), open shrublands (OSH), savanna (SAV), and woody sava
Table 4. Summary statistics of Berkeley model inputs from field data versus Noah reanalysis data
+7

Referências

Documentos relacionados

In this study, a remote sensing model of tran- spiration (the primary component of ET), driven by a time series of vegetation indices, was used to substitute transpi- ration from

and Wood, E.: The assimilation of remotely sensed soil brightness temperature im- agery into a land surface model using ensemble Kalman filtering: a case study based on

The objectives of this study are to assessment soil loss by using Geographic Information System and Remote Sensing technology and to determine the effect of land

Spatial distributions of remote sensing based GVF, ISA, albedo, and LAI (a, e, i and m) compared with those based on Noah/UCM lookup tables (b, f, j and n) and simulated maps

Land data assimilation systems (LDAS) are needed to integrate satellite data providing information about land state variables such as the surface soil moisture (SSM) and leaf area

Three different data products from the SMOS mission are assimilated separately into the GEOS-5 land surface model to improve estimates of surface and root-zone soil moisture and

Of the environmental measurements made at the tower; ambient and soil surface temperature (Fig. 5b and c), and wind speed above the canopy and within the canopy (mid-canopy) (Fig.

In this study, the dynamic vegetation model Inland (Integrated Model of Land Surface Processes) driven by two representative concentration pathways (RCPs) scenarios was applied