Neither of these systems enable the production of a large range of well-defined Hep/HS oligomers and polymers; therefore, alternative processes to control Hep/HS synthesis are of interest (Laremore et al. 2009).
The utility of Mg/Ca ratios, however, is demonstrated at the scale of the regional aquifer, where PSWs from a larger range of well depths, and correspondingly, aquifer depths, showed increasing Mg/Ca ratios with well depth.
None of these methods is reliable and highly sensitive over a large range of strengths as well as being flexible for different upper limb dimensions or deformities (e.g. contractures).
Our methodology is also free from exon length bias and works better in a large range of situations, as well as being easy to use because the MA approach provides a unique probability: the EPFE values.
This concept is indeed a valuable strategy to provide a large range of polymers with well-defined molecular characteristics (length, composition and architecture), under non-very demanding conditions.
The Tuscany SCA runtime environment was designed to encompass a large range of existing technologies, as well as new, emergent ones.
Whilst consistency has been observed between all three techniques, electron diffraction has been found to have advantages by allowing data to be collected over a large range of scattering angles as well as without interference from crystalline regions within the char.
These features are witnesses of a large range of circulation/sealing mechanisms, as well as changes in fluid chemistry and thermodynamic state of the system, providing evidence for (i) the evolution of the fluid through a pathway from depth to the surface and (ii) different cycles of fault opening and sealing.
The principal problems that we faced were the large range of cell sizes as well as the large number of objects within the hypocotyl radius.
