@Article{SellersDRBFBGDMNSFH:1997:MoExEn,
author = "Sellers, P. J. and Dickinson, R. E. and Randall, D. A. and Betts,
A. K. and F. G., Hall and Berry, J. A. and Gollatz, G. J. and
Denning, A. S. and Mooney, H. A. and Nobre, Carlos Afonso and
Sato, N. and Field, C. B. and HendersonSellers, A.",
title = "Modeling the exchanges of energy, water, and carbon between
continents and the atmosphere",
journal = "Science",
year = "1997",
volume = "275",
number = "5299",
pages = "502--509",
month = "Jan.",
keywords = "ESTUDO DO TEMPO E DO CLIMA, General circulation model, simple
biosphere model, land-surface, climate models, tropical
deforestation, stomatal conductance, Amazonian deforestation,
canopy reflectance, July circulation, regional climate.",
abstract = "Atmospheric general circulation models used for climate simulation
and weather forecasting require the fluxes of radiation, heat,
water vapor, and momentum across the land-atmosphere interlace to
be specified. These fluxes are calculated by submodels called land
surface parameterizations. Over the last 20 years, these
parameterizations have evolved from sim pie, unrealistic schemes
into credible representations of the global
soil-vegetation-atmosphere transfer system as advances in plant
physiological and hydrological research, advances in satellite
data interpretation, and the results of large-scale field
experiments have been exploited. Some modem schemes incorporate
biogeochemical and ecological knowledge and, when coupled with
advanced climate and ocean models, will be capable of modeling the
biological and physical responses of the Earth system to global
change, for example, increasing atmospheric carbon dioxide.",
copyholder = "SID/SCD",
issn = "0036-8075 and 1095-9203",
label = "10162",
targetfile = "sellers_modeling.pdf",
urlaccessdate = "20 maio 2024"
}