<p>Number of specimens of amphibians and reptiles, predicted by the adjusted SDMs to occur at certain elevations at intervals of 100 m above sea level. Presumably due to over-prediction the inferred elevational ranges probably are larger than the realized ones, giving higher numbers of species than actually occurring in lowlands and high elevations.</p
Lizard distribution patterns were examined in relation to elevation in two undulating landscapes. We...
The abiotic and biotic gradients on mountains have enor-mous potential to improve our understanding ...
Continental mountain areas cover less than 15% of global land surface, yet, these regions concentrat...
Aim Elevational Rapoport’s rule, proposed in 1992 by Stevens, predicts that species ranges on mounta...
Aims To examine species richness patterns in Papua New Guinea’s terrestrial vertebrates and test for...
Quantifying spatial patterns of species richness is a core problem in biodiversity theory. Spiny fro...
<p>Species richness values estimated using rarefaction for amphibians and reptiles (herpetofauna), m...
Species richness commonly varies with elevation, but in many montane regions, the greatest number of...
Species distribution models (SDMs) are increasingly used to forecast impacts of climate change on sp...
Aim. High levels of species richness in mountains are associated with their hypothetical roles as c...
<p>Amphibian species richness (richness values rescaled between 0 and 100; a: all species; b: threat...
Exploring elevational patterns in species richness and their underlying mechanisms is a major goal i...
Abstract. Comparing elevational gradients across a wide spectrum of climatic zones offers an ideal s...
We explored the alpha and gamma patterns in species richness of non-volant small mammals on Mt. Snež...
Tropical species with narrow elevational ranges may be thermally specialized and vulnerable to globa...
Lizard distribution patterns were examined in relation to elevation in two undulating landscapes. We...
The abiotic and biotic gradients on mountains have enor-mous potential to improve our understanding ...
Continental mountain areas cover less than 15% of global land surface, yet, these regions concentrat...
Aim Elevational Rapoport’s rule, proposed in 1992 by Stevens, predicts that species ranges on mounta...
Aims To examine species richness patterns in Papua New Guinea’s terrestrial vertebrates and test for...
Quantifying spatial patterns of species richness is a core problem in biodiversity theory. Spiny fro...
<p>Species richness values estimated using rarefaction for amphibians and reptiles (herpetofauna), m...
Species richness commonly varies with elevation, but in many montane regions, the greatest number of...
Species distribution models (SDMs) are increasingly used to forecast impacts of climate change on sp...
Aim. High levels of species richness in mountains are associated with their hypothetical roles as c...
<p>Amphibian species richness (richness values rescaled between 0 and 100; a: all species; b: threat...
Exploring elevational patterns in species richness and their underlying mechanisms is a major goal i...
Abstract. Comparing elevational gradients across a wide spectrum of climatic zones offers an ideal s...
We explored the alpha and gamma patterns in species richness of non-volant small mammals on Mt. Snež...
Tropical species with narrow elevational ranges may be thermally specialized and vulnerable to globa...
Lizard distribution patterns were examined in relation to elevation in two undulating landscapes. We...
The abiotic and biotic gradients on mountains have enor-mous potential to improve our understanding ...
Continental mountain areas cover less than 15% of global land surface, yet, these regions concentrat...