Here we describe how time length can be approximated using geomorphic metrics and how topography reveals changing residence times of minerals within soils.
The results advance the fundamental understanding of how chain length can substantially alter inter-particle bridging behaviour under different conditions, and thus provide a more robust basis for enhanced dewatering of clay suspensions through flocculant MW selection.
This illustrates how task length can affect reliability.
The numerators and denominators were investigated to determine how protein length can influence the MED score.
Second, we aim to demonstrate how tibia length can be used to confirm that measurement error in height does not influence the results.
They can examine, for example, how accurately telomere length can predict longevity or healthy aging.
Part I of this paper deals with how the penetration length can be computed analytically, both as 1-D channel flow and 2-D radial flow.
A model has been formulated to describe this relationship and used to identify how the sensing window length can be chosen to minimize the negative effects of parasitic resistance.
Thus, the asymmetric cell division cycle provides a mechanism for a change in cell morphology and also an explanation for how a reduction in cell length can occur in a cell shaped by a stable microtubule array.
We first show how a characteristic height and length can be associated to an arbitrary two-dimensional shape.
