A recent simulation study [45] suggests that spatial processes can have important effects on the structure of mutualistic networks, though did not specifically address their degree distributions.
Other spatial processes probably also had important, perhaps dominant, roles, but the miniature reaction centers were the easiest to notice.
Spatial processes can be potentially important in mathematics where explicit or implicit visualization is required, like when imagining operations along the number line or visualizing functional relationships.
It is concluded that the present planning framework for afforestation seems to neglect important spatial concerns within the planning and implementation process.
The map reveals two important spatial patterns.
Finally, the findings extend our understanding of spatial processes.
Its distribution defines the Gaussian spatial process.
Understanding the relative importance of these processes requires that further manipulative and correlative work is conducted across a range of ecologically-important spatial scales.
Within-field spatial distribution of ecosystem engineers such as earthworms determine the spatial patterns of important ecosystem processes at the field scale.
In this work, we describe a new, efficient computation framework for evaluating the contributions of spatial organization to important cellular processes.
