Sentence examples for more efficient pathways from inspiring English sources

The dependence of permeability on porosity is generally explained by the assumption that a more connected pore space (cracks and pores) provides more efficient pathways for fluid migration (e.g., Costa [2006]; Chaki et al. [2008]).

Meanwhile the hierarchical structure of carbon nanofiber@nickel-cobalt layered double hydroxide nanorods/nanosheets (CNF@Ni-Co LDH NR/NS) hybrid membranes provide not only more active sites for electrochemical reaction but also more efficient pathways for electron transport.

Further enhancements are likely if more efficient pathways can be constructed, providing for the efficient channeling of intermediates to final products, and if the means for sequestering natural products in planta can be accomplished.

One way to reduce lactate formation is to maintain a low residual glucose concentration, which has been shown to shift the cell metabolism to more efficient pathways in BHK (Cruz et al. 1999), hybridoma (Zhou et al. 1995), and CHO (Fan et al. 2014) cell cultures.

PL studies on TiO2 Sm3+ revealed that the sensitized emission is a much more efficient pathway than the direct excitations of Sm3+.

Clathrin-mediated endocytosis seemed therefore to be only partially involved in the uptake of TAT-SA, the major internalization being mediated by another, more efficient pathway.

These authors showed that, in rats, which are obligatory nose breathers, translocation of inhaled nanosized particles along neurons is a more efficient pathway to the CNS than via the blood circulation across the blood-brain barrier.

In rats, which are obligatory nose breathers, translocation of inhaled nanosized particles along neurons seems to be a more efficient pathway to the CNS than via the blood circulation across the blood brain barrier.

If oxygen is even more abundant, the next transition is that glycerol and glucose will be still consumed, but using the more efficient respirative pathways (the change occurs from pathways 1 and 3 to 2 and 4 in Figure  4).

This unique structure significantly enlarged the electroactive surface areas of the ZnCo2O4, leading to better electrolyte/electrode contact, more efficient transport pathways and good strain accommodation.

Researchers rely on the powerful tools of molecular biology to improve the stability of these enzymes, either by protecting residues sensitive to oxidation or by devising more efficient intramolecular pathways for free-radical allocation.