The management of marine biodiversity relies on sound knowledge of beta (or turnover) and gamma (or regional) diversity patterns, but such knowledge is largely lacking for continental slope environments. Here, we used free-living nematodes to investigate spatial and environmental patterns of beta and gamma diversity on 2 major seabed features of the New Zealand continental slope, Chatham Rise and Challenger Plateau. Species gamma diversity on Chatham Rise was about twice that observed on Challenger Plateau, which likely reflected the greater number of sites sampled and greater range of environmental conditions encompassed by our sampling on the former. Mean Bray-Curtis dissimilarity in community structure/composition (i.e. beta diversity) b...
Assessing the relative contribution of local diversity to regional biodiversity may be the key to un...
The role of habitat complexity has been widely neglected in the study of meiofaunal community patter...
The great variety of geological and hydrological conditions in the deep sea generates many different...
The management of marine biodiversity relies on sound knowledge of beta (or turnover) and gamma (or ...
Many marine meiofauna taxa seem to possess cosmopolitan species distributions, despite their endoben...
Deep-sea meiofaunal communities vary at a range of spatial scales. However, identifying which scale(...
Biodiversity has a spatial dimension, which we estimated by examining generic turnover (beta diversi...
The deep sea is the largest biome of the biosphere. The knowledge of the spatial variability of deep...
Understanding community assembly and processes driving diversity in deep-sea environments is a major...
The positive correlation between sediment particle-size diversity (a measure of habitat heterogeneit...
Assessing the relative contribution of local diversity to regional biodiversity may be the key to un...
A study was carried out across the continental shelf and slope in the Western Indian Ocean along the...
Understanding processes responsible for shaping biodiversity patterns on continental margins is an i...
Assessing the relative contribution of local diversity to regional biodiversity may be the key to un...
The role of habitat complexity has been widely neglected in the study of meiofaunal community patter...
The great variety of geological and hydrological conditions in the deep sea generates many different...
The management of marine biodiversity relies on sound knowledge of beta (or turnover) and gamma (or ...
Many marine meiofauna taxa seem to possess cosmopolitan species distributions, despite their endoben...
Deep-sea meiofaunal communities vary at a range of spatial scales. However, identifying which scale(...
Biodiversity has a spatial dimension, which we estimated by examining generic turnover (beta diversi...
The deep sea is the largest biome of the biosphere. The knowledge of the spatial variability of deep...
Understanding community assembly and processes driving diversity in deep-sea environments is a major...
The positive correlation between sediment particle-size diversity (a measure of habitat heterogeneit...
Assessing the relative contribution of local diversity to regional biodiversity may be the key to un...
A study was carried out across the continental shelf and slope in the Western Indian Ocean along the...
Understanding processes responsible for shaping biodiversity patterns on continental margins is an i...
Assessing the relative contribution of local diversity to regional biodiversity may be the key to un...
The role of habitat complexity has been widely neglected in the study of meiofaunal community patter...
The great variety of geological and hydrological conditions in the deep sea generates many different...