@InProceedings{AraújoCMSHRVVP:2018:CaWaEn,
author = "Ara{\'u}jo, Alessandro and Carswell, Fiona and Malhi, Yadvinder
and Saleska, Scott and Hutyra, Lucy and Rocha, Humberto and Von
Randow, Celso and Vourlitis, George and Pastorello, Gilberto",
affiliation = "{Empresa Brasileira de Pesquisa Agropecu{\'a}ria (EMBRAPA)} and
{Landcare Research} and {Oxford University} and {University of
Arizona} and {Boston University} and {Universidade de S{\~a}o
Paulo (USP)} and {Instituto Nacional de Pesquisas Espaciais
(INPE)} and {California State University} and {Lawrence Berkeley
National Laboratory}",
title = "Carbon, Water, and Energy Land-Atmosphere Exchanges in Wet and
Seasonally Dry Forests in the Amazon",
year = "2018",
organization = "TES/SBR Joint Investigators Meeting",
abstract = "For over two decades, the Large-Scale Biosphere-Atmosphere
Experiment in Amazonia (LBA) has been studying surface fluxes
between the atmosphere and the biosphere in the Amazon biome. A
network of towers is used for micrometeorologicalmeasurements
across climatic and ecological gradients. Observational data show
different behaviors between the equatorial part of the Amazon in
the North (wet) and the Southern part (seasonally dry). Mechanisms
such as deep root systems and hydraulic redistribution are
evolutionary strategies allowing vegetation to take advantage of
increases in surface radiation during periods with lower
precipitation. However, there seems to be a physiological limiting
factor, given that in these drier periods there are parts of the
Amazon where carbon assimilation and evapotranspiration increase,
while in other parts this is not the case. Comparing and
integrating observational results into modeling work, including
some of these mechanisms, has improved the predictive capacity of
the models. This poster will show some of these results and
discuss ongoing and future work in the Amazon within the context
of the LBA Program.",
conference-location = "Potomac, Maryland",
conference-year = "01-02 May",
urlaccessdate = "27 abr. 2024"
}