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A. Carmignotto, M. Vivo, A. Langguth (2012)
Mammals of the Cerrado and Caatinga
G. Fonseca (1985)
The vanishing Brazilian Atlantic forestBiological Conservation, 34
G. Seamons (2006)
Mammal Species of the World: A Taxonomic and Geographic Reference (3rd edition), 20
G. Mittelbach, D. Schemske, H. Cornell, A. Allen, Jonathan Brown, M. Bush, S. Harrison, A. Hurlbert, N. Knowlton, H. Lessios, C. McCain, A. McCune, L. McDade, M. McPeek, T. Near, T. Price, R. Ricklefs, K. Roy, D. Sax, D. Schluter, James Sobel, M. Turelli (2007)
Evolution and the latitudinal diversity gradient: speciation, extinction and biogeography.Ecology letters, 10 4
J. Ragle, D. Remsen (2010)
IUCN Red List of Threatened Species
J. Lennon, Patricia Koleff, J. Greenwood, K. Gaston (2001)
The geographical structure of British bird distributions: diversity, spatial turnover and scaleJournal of Animal Ecology, 70
H. Tuomisto, K. Ruokolainen (1997)
The role of ecological knowledge in explaining biogeography and biodiversity in AmazoniaBiodiversity & Conservation, 6
H. Arita, Fernanda Figueroa, A. Frisch, P. Rodríguez, Karina Santos-del-Prado (1997)
Geographical Range Size and the Conservation of Mexican MammalsConservation Biology, 11
B. Hawkins (2004)
Invited Views in Basic and Applied Ecology: Are we making progress toward understanding the global diversity gradient?Basic and Applied Ecology, 5
R. Anderson, E. Martínez‐Meyer (2004)
Modeling species’ geographic distributions for preliminary conservation assessments: an implementation with the spiny pocket mice (Heteromys) of EcuadorBiological Conservation, 116
(2012)
West Indian mammals: the old, the new, and the recently extinct
R. Whittaker, K. Willis, Richard Field (2001)
Scale and species richness: towards a general, hierarchical theory of species diversityJournal of Biogeography, 28
GlobCover Land Cover v2 2008 database
Patricia Koleff, K. Gaston, J. Lennon (2003)
Measuring beta diversity for presence–absence dataJournal of Animal Ecology, 72
L. Costa, Y. Leite, G. Fonseca, M. Fonseca (2000)
Biogeography of South American Forest Mammals: Endemism and Diversity in the Atlantic Forest1, 32
G. Morgan, C. Woods (1986)
Extinction and the zoogeography of West Indian land mammalsBiological Journal of The Linnean Society, 28
(1990)
The geological basis of biogeographic patterns in Amazonia . In : (
C. Hoorn (2006)
The birth of the mighty Amazon.Scientific American, 294 5
D. Simberloff, E. Rapoport, Barbara Drausal (1983)
Areography: Geographical Strategies of Species
(2009)
Do interlinks between geography and ecology explain diversity patterns in Sciuridae
A. Orme (2007)
The Tectonic Framework of South America
K. Rohde (1996)
Rapoport's Rule is a Local Phenomenon and Cannot Explain Latitudinal Gradients in Species Diversity, 3
(2004)
Modeling species
Patricia Koleff, J. Lennon, K. Gaston (2003)
Are there latitudinal gradients in species turnoverGlobal Ecology and Biogeography, 12
R. Anderson, Marcela Gómez‐Laverde, A. Peterson (2002)
Geographical distributions of spiny pocket mice in South America: insights from predictive modelsGlobal Ecology and Biogeography, 11
R.J.G. Kaandorp, F. Wesselingh, H. Vonhof (2006)
Ecological implications from geochemical records of Miocene western Amazonian bivalvesJournal of South American Earth Sciences, 21
(1984)
Biostatistical analysis. Prentice-Hall, Englewood Cliffs, NJ
L. Terribile, J. Diniz‐Filho (2009)
Spatial patterns of species richness in New World coral snakes and the metabolic theory of ecologyActa Oecologica-international Journal of Ecology, 35
Bruce Patterson (2000)
Patterns and trends in the discovery of new Neotropical mammalsDiversity and Distributions, 6
S. Solari, P. Velazco, Bruce Patterson (2012)
Hierarchical Organization of Neotropical Mammal Diversity and Its Historical Basis
Daryl Wilson, D. Reeder (1993)
Mammal species of the world
(1984)
Biostatistical analysis
I. Hanski, M. Gyllenberg (1997)
Uniting Two General Patterns in the Distribution of SpeciesScience, 275
A. Ruggiero, T. Kitzberger (2004)
Environmental correlates of mammal species richness in South America: effects of spatial structure, taxonomy and geographic rangeEcography, 27
G. Eiten (1972)
The cerrado vegetation of BrazilThe Botanical Review, 38
M. Willig, Dawn Kaufman, R. Stevens (2003)
LATITUDINAL GRADIENTS OF BIODIVERSITY:Pattern,Process,Scale,and SynthesisAnnual Review of Ecology, Evolution, and Systematics, 34
(2010)
ArcGIS 10
B. Hawkins, Eric Porter, J. Diniz‐Filho (2003)
PRODUCTIVITY AND HISTORY AS PREDICTORS OF THE LATITUDINAL DIVERSITY GRADIENT OF TERRESTRIAL BIRDSEcology, 84
(1990)
The geological basis of biogeographic patterns in Amazonia
(1992)
Habitat alteration and species loss in Brazilian forests
G. Ceballos, James Brown (1995)
Global Patterns of Mammalian Diversity, Endemism, and EndangermentConservation Biology, 9
B. Lim (2012)
Biogeography of Mammals from the Guianas of South America
P. Velazco, Bruce Patterson (2008)
Phylogenetics and biogeography of the broad-nosed bats, genus Platyrrhinus (Chiroptera: Phyllostomidae).Molecular phylogenetics and evolution, 49 3
R. Voss (2003)
A New Species of Thomasomys (Rodentia: Muridae) from Eastern Ecuador, with Remarks on Mammalian Diversity and Biogeography in the Cordillera Oriental
R. Anderson, A. Peterson, Marcela Gómez‐Laverde, R. Anderson, A. Peterson, Gó Mez-Laverde (2002)
Using niche-based GIS modeling to test geographic predictions of competitive exclusion and competitive release in South American pocket miceOikos, 98
Bruce Patterson, S. Solari, P. Velazco (2012)
The Role of the Andes in the Diversification and Biogeography of Neotropical Mammals
G. Amori, S. Gippoliti, L. Luiselli, C. Battisti (2009)
Sciuridae, Rapoport’s effect and the mismatch between range size, conservation needs, and scientific productivity: an approach at the genus levelWeb Ecology, 9
W. Jetz, C. Rahbek (2001)
Geometric constraints explain much of the species richness pattern in African birdsProceedings of the National Academy of Sciences of the United States of America, 98
G. Amori, S. Gippoliti, L. Luiselli, C. Battisti (2010)
Are there latitudinal gradients in taxa turnover? A worldwide study with Sciuridae (Mammalia: Rodentia)Community Ecology, 11
Adriano Chiarello (1999)
Effects of fragmentation of the Atlantic forest on mammal communities in south-eastern BrazilBiological Conservation, 89
M. Palmer, P. White (1994)
Scale Dependence and the Species-Area RelationshipThe American Naturalist, 144
M. Udvardy (1975)
A classification of the biogeographical provinces of the world, 18
(2009)
Do interlinks between geography and ecology explain diversity patterns in Sciuridae ? An approach at the genus level
B. Hawkins, Richard Field, H. Cornell, D. Currie, J. Guégan, Dawn Kaufman, J. Kerr, G. Mittelbach, T. Oberdorff, Eileen O'Brien, Eric Porter, J. Turner (2003)
ENERGY, WATER, AND BROAD‐SCALE GEOGRAPHIC PATTERNS OF SPECIES RICHNESSEcology, 84
Abstract The correlates of species richness and conservation status of South American rodents were studied by analyzing the ranges of 791 species (belonging to 159 genera and 16 families). The distribution data (size of each species’ range in km 2 ) and the relative quantity of each macrohabitat type (in km 2 ) were obtained from the Global Mammal Assessment data bank of the International Union for Conservation of Nature (IUCN), and the Global Land Cover 2000, respectively. We excluded mainly island species from analyses but included those species that occur on both islands and the mainland. Habitats were grouped according to seven categories (shrubland, forest, grassland, savannah, wetlands, desert, and artificial). Mean range sizes varied significantly among families, with members of the family Cuniculidae having larger ranges than the species belonging to the rest of the families. Mean range size did not differ significantly between endemic and non-endemic taxa. There was a significant positive relation between total species richness and the availability of habitat types. Specialized species (i.e., those linked to a single habitat type) were found especially in forests, but shrublands and grasslands were also important. IUCN threatened species were distributed in a scattered way, and essentially in forests, grasslands, and shrublands. No region of the Neotropics housed more than two to three threatened taxa, apart from a spot in north-central Peru with five species. The richness of IUCN threatened species was higher in the montane forest ecosystems of the Andes, north-central Peru, than in other areas of South America. There was a mismatch between the hotspot maps for threatened and endemic species. The conservation implications of these patterns are discussed.
Mammalia – de Gruyter
Published: Feb 1, 2013
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