Bacteria are essential parts of ecosystems and are the most diverse organisms on the
planet. Yet, our understanding of their biogeographic patterns and the processes that drive …

Soil microbial communities are essential for ecosystem function, but linking community
composition to biogeochemical processes is challenging because of high microbial diversity …

Bacteria have been inferred to exhibit relatively weak biogeographic patterns. To what
extent such findings reflect true biological phenomena or methodological artifacts remains …

Bacteria are essential parts of ecosystems and are the most diverse organisms on the
planet. Yet, we still do not know which habitats support the highest diversity of bacteria …

The extent to which the distribution of soil bacteria is controlled by local environment vs.
spatial factors (eg dispersal, colonization limitation, evolutionary events) is poorly …

Bacteria are essential parts of ecosystems and are the most abundant organisms on the
planet. Yet, we still do not know which habitats support the highest diversity of bacteria …

Bacteria control major nutrient cycles and directly influence plant, animal and human health.
However, we know relatively little about the forces shaping their large‐scale ecological …

Soil habitats contain vast numbers of microorganisms and harbor a large portion of the
planet's biological diversity. Although high-throughput sequencing technologies continue to …

Although ongoing research has revealed some of the main drivers behind global spatial
patterns of microbial communities, spatio-temporal dynamics of these communities still …

It has been widely accepted that there is a distance‐decay pattern in the soil microbiome.
However, few studies have attempted to interpret the microbial distance‐decay pattern from …