Sentence examples for more efficient propagation from inspiring English sources
This study aims at developing more efficient propagation channel models using physical-statistical approaches.
This is essentially due to the size of the velocity jump at the CMB: larger velocity jumps lead to stronger reflections (PcP, ScS) at short range, and more efficient propagation into the core (SKS, SKKS) at long range.
Although whole genome sequence data are only available for T. melanosporum so far, we used T. borchii as an experimental organism to set up this improved transformation procedure because of the easier and more efficient propagation of its mycelium under axenic culture conditions.
Nevertheless, we cannot rule out the possibility that the present values of these "global topological" parameters result from a variety of different and independent evolutionary steps, acting at a small topological scale, which indirectly, also lead to an overall more efficient information propagation throughout the GRN.
Many observations seem to require more efficient cross-field propagation than theoretical propagation models can easily produce.
Our results revealed that extreme floods play an important role in adjusting a river channel to become more efficient for subsequent propagation of floods, and that in-channel scour and sediment re-distribution can greatly improve the conveyance capacity of a channel for subsequent floods.
Our results appear compatible with more efficient CWD prion propagation by elk cellular prion protein (CerPrPC) containing E at residue 226 than by deer CerPrPC containing Q at this position.
It was hypothesized that aligned ligament cells would be more efficient at calcium wave propagation than cells that were randomly oriented.
The optimization method's potential for creating structures with novel dynamic behavior is illustrated by a simple example; it is shown that an elastic rod in which the optimized stiffness distribution is allowed to vary in time can be much more efficient in prohibiting wave propagation compared to a static bandgap structure.
It is highly likely that some sort of oligomerisation event occurs (Walter and Ron, 2011), preceding from a dimer state, which makes signal propagation more efficient, although exactly how this happens is not clearly understood.
Why? First, sound propagation is more efficient in water than in air, while energy from light is absorbed more than that from sound as it passes through water; hence many aquatic species rely on acoustics for communication.
