Understanding spatial patterns of biodiversity is critical for conservation planning, particularly given rapid habitat loss and human-induced climatic change. Diversity and endemism are typically assessed by comparing species ranges across regions. However, investigation of patterns of species diversity alone misses out on the full richness of patterns that can be inferred using a phylogenetic approach. Here, using Australian Acacia as an example, we show that the application of phylogenetic methods, particularly two new measures, relative phylogenetic diversity and relative phylogenetic endemism, greatly enhances our knowledge of biodiversity across both space and time. We found that areas of high species richness and species endemism are ...
Aim The plight of the world's biodiversity hotspots has been paralleled by a debate over how to best...
Biodiversity is most commonly measured in taxonomic richness. For example, it is common to describe ...
Considering genetic relatedness among species has long been argued as an important step toward measu...
Understanding spatial patterns of biodiversity is critical for conservation planning, particularly g...
Understanding spatial patterns of biodiversity is critical for conservation planning, particularly g...
We present a new, broadly applicable measure of the spatial restriction of phylogenetic diversity, t...
Accurately and sufficiently quantifying biodiversity is integral for conservation. Traditional metri...
Aim: Biodiversity studies typically use species, or more recently phylogenetic diversity (PD), as th...
Identifying geographical areas with the greatest representation of the tree of life is an important ...
In the face of a crisis of biodiversity loss we need the best possible information about the distrib...
Biodiversity is most commonly measured in taxonomic richness. For example, it is common to describe ...
Aim: The plight of the world's biodiversity hotspots has been paralleled by a debate over how to bes...
Phylodiversity measures summarise the phylogenetic diversity patterns of groups of organisms. By usi...
Endemism is often misinterpreted as referring to narrow distributions (range restriction). In fact, ...
Aim The plight of the world's biodiversity hotspots has been paralleled by a debate over how to best...
Biodiversity is most commonly measured in taxonomic richness. For example, it is common to describe ...
Considering genetic relatedness among species has long been argued as an important step toward measu...
Understanding spatial patterns of biodiversity is critical for conservation planning, particularly g...
Understanding spatial patterns of biodiversity is critical for conservation planning, particularly g...
We present a new, broadly applicable measure of the spatial restriction of phylogenetic diversity, t...
Accurately and sufficiently quantifying biodiversity is integral for conservation. Traditional metri...
Aim: Biodiversity studies typically use species, or more recently phylogenetic diversity (PD), as th...
Identifying geographical areas with the greatest representation of the tree of life is an important ...
In the face of a crisis of biodiversity loss we need the best possible information about the distrib...
Biodiversity is most commonly measured in taxonomic richness. For example, it is common to describe ...
Aim: The plight of the world's biodiversity hotspots has been paralleled by a debate over how to bes...
Phylodiversity measures summarise the phylogenetic diversity patterns of groups of organisms. By usi...
Endemism is often misinterpreted as referring to narrow distributions (range restriction). In fact, ...
Aim The plight of the world's biodiversity hotspots has been paralleled by a debate over how to best...
Biodiversity is most commonly measured in taxonomic richness. For example, it is common to describe ...
Considering genetic relatedness among species has long been argued as an important step toward measu...