Despite many previous studies devoted to investigating urban expansion patterns and mechanisms, the spatial-temporal dynamics of driving forces and their regional differences have not been well-documented.
Currently, little is known about the mechanisms driving the spatial distribution of thermal refuges, particularly at large scales.
Those clustered overlaps are likely to entail different regulatory mechanisms for the spatial or temporal isolation of the mutually exclusive interactions.
In this paper we have three objectives: first, to determine the transmission mechanisms from the spatial temporal distribution of those global H5N1 outbreak cases; second, to delineate important introduction and spreading routes since 2003; and third, to identify the primary spreading agents for the long term and repeated circulation of the H5N1 virus.
Below, we review the neural mechanisms supporting the spatial representations discussed above.
Such mechanisms mediating the spatial process of coevolution, however, can differ between spatial scales.
However, additional studies are needed to unravel the precise mechanisms underlying the spatial differences in CaM levels.
However, the mechanisms controlling the spatial and temporal characteristics of the Ca2+ signalling involved in the activation of eNOS and other processes, are still poorly understood.
UNC-13L accelerates release by two mechanisms: increasing the spatial proximity of primed SVs to calcium channels and enhancing the calcium sensitivity of release by binding to calmodulin.
The progress in identifying transporter genes provided a new handle for addressing the mechanisms and the spatial and temporal regulation of nitrogen acquisition from a new level of detail.
The controlled monomer insertion polymerization into the main chain by a 'reversible addition-fragmentation chain transfer' (RAFT) mechanism allows the spatial arrangement of the NLO chromophores along the polymeric chain in order to obtain sequence-ordered polymers.
