Antonio Mauro Saraiva

Dr. Antonio Mauro Saraiva

1. Head of the Planetary Health Brazil, Institute of Advanced Studies, University of São, Butantã 05508-060, SP, Brazil</br> 2. Steering Committee, Planetary Health Alliance, Boston, MA 02115, USA
orcid

Research Focus & Metrics

Academic Career Length

27Years (2000-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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3 May 2015 in Journal of Economic Entomology
Verified
Journal Article
Closed access
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TGTereza Giannini
Tereza Giannini
GCG. D. Cordeiro
G. D. Cordeiro
BFB. M. Freitas
B. M. Freitas
ASAntonio Mauro Saraiva
Antonio Mauro Saraiva
VIV. L. Imperatriz-Fonseca
V. L. Imperatriz-Fonseca
Food production is challenged by changes in climate and land use and expanding human population growth. Proper pollination can increase the production and quality of fruit, nut, oil, and fiber crops. We reviewed crop dependence on pollinators and estimated the economic value of pollination per year for each crop in Brazil. We analyzed 141 crops and found that 85 depend on pollinators. Almost one-third of these crops have an essential or great dependence on pollinators. The economic contribution of pollinators totals ∼30% (∼US$12 billion) of the total annual agricultural income of the dependent crops (totalizing almost US$45 billion). However, half of these figures includes soybean crop (US$5.7 billion of pollinators’ contribution and US$22 billion of annual income). Soybean was considered as having a modest dependence on pollinators, but this remains controversial because pollinator dependence might vary among different varieties cultivated in Brazil. Moreover, we have no information about pollinator dependence regarding some important crops, showing the urgent need for basic research into reproductive biology and pollination ecology.

18 September 2014 in Apidologie
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Journal Article
Closed access
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TGTereza Giannini
Tereza Giannini
Samuel BoffSamuel Boff
Samuel Boff
GCG. D. Cordeiro
G. D. Cordeiro
ECE. A. Cartolano
E. A. Cartolano
AVA. K. Veiga
A. K. Veiga
ASAntonio Mauro Saraiva
Antonio Mauro Saraiva

19 November 2012 in Ecography
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Journal Article
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TGTereza Giannini
Tereza Giannini
DCDaniel Stephen Chapman
Daniel Stephen Chapman
ASAntonio Mauro Saraiva
Antonio Mauro Saraiva
ISIsabel Alves dos Santos
Isabel Alves dos Santos
JBJacobus C. Biesmeijer
Jacobus C. Biesmeijer

1 October 2012 in Ecological Modelling
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Journal Article
Closed access
TGTereza Giannini
Tereza Giannini
AAAndré L. Acosta
André L. Acosta
CGCarlos A. Garófalo
Carlos A. Garófalo
ASAntonio Mauro Saraiva
Antonio Mauro Saraiva
ISIsabel Alves dos Santos
Isabel Alves dos Santos
VIVera L. Imperatriz-Fonseca
Vera L. Imperatriz-Fonseca

1 August 2007 in Computers and Electronics in Agriculture
Verified
Journal Article
Closed access
ACAlberto Camilli
Alberto Camilli
CCCarlos Cugnasca
Carlos Cugnasca
ASAntonio Mauro Saraiva
Antonio Mauro Saraiva
AHAndré R. Hirakawa
André R. Hirakawa
PCPedro L.P. Corrêa
Pedro L.P. Corrêa

10 September 2015 in PLOS ONE
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Journal Article
Open access
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TGTereza Giannini
Tereza Giannini
LGLucas Alejandro Garibaldi
Lucas Alejandro Garibaldi
AAAndre L Acosta
Andre L Acosta
JSJuliana S Silva
Juliana S Silva
KMKate P Maia
Kate P Maia
AKAstrid M P Kleinert
Astrid M P Kleinert
Supergeneralists, defined as species that interact with multiple groups of species in ecological networks, can act as important connectors of otherwise disconnected species subsets. In Brazil, there are two supergeneralist bees: the honeybee Apis mellifera, a non-native species, and Trigona spinipes, a native stingless bee. We compared the role of both species and the effect of geographic and local factors on networks by addressing three questions: 1) Do both species have similar abundance and interaction patterns (degree and strength) in plant-bee networks? 2) Are both species equally influential to the network structure (nestedness, connectance, and plant and bee niche overlap)? 3) How are these species affected by geographic (altitude, temperature, precipitation) and local (natural vs. disturbed habitat) factors? We analyzed 21 plant-bee weighted interaction networks, encompassing most of the main biomes in Brazil. We found no significant difference between both species in abundance, in the number of plant species with which each bee species interacts (degree), and in the sum of their dependencies (strength). Structural equation models revealed the effect of A. mellifera and T. spinipes, respectively, on the interaction network pattern (nestedness) and in the similarity in bee’s interactive partners (bee niche overlap). It is most likely that the recent invasion of A. mellifera resulted in its rapid settlement inside the core of species that retain the largest number of interactions, resulting in a strong influence on nestedness. However, the long-term interaction between native T. spinipes and other bees most likely has a more direct effect on their interactive behavior. Moreover, temperature negatively affected A. mellifera bees, whereas disturbed habitats positively affected T. spinipes. Conversely, precipitation showed no effect. Being positively (T. spinipes) or indifferently (A. mellifera) affected by disturbed habitats makes these species prone to pollinate plant species in these areas, which are potentially poor in pollinators.