Sentence examples for driving force necessary from inspiring English sources

The driving force necessary for immiscible phase movement is maintained by gasoline precipitation at the soil surface.

Loss of Kcnj10 leads to a loss of the endocochlear potential and thereby of the driving force necessary for hearing.

The potential for formation of superoxide from oxygen is −330 mV; thus, theoretically a heme potential of −330 mV would be needed to provide the driving force necessary for the reaction to occur spontaneously.

Discrete loops of membrane, from which actin filaments emanate, pinch away from the phagocytic cups, potentially providing one of the driving forces necessary for EB internalization.

A context-embedded and evidence-based segmentation of patient populations could help to explain the driving forces necessary to improve service delivery (appropriateness, access, timeliness) and to engage and empower the patient in the care process [ 35].

Ang1 would be predicted to alter solute flux by modulating the contribution of the endothelium to microvascular permeability, given the effects of this ligand on endothelial cell biology, and techniques that can discriminate changes in permeability coefficients from changes in haemodynamic forces and driving forces are necessary to demonstrate the contribution of altered permeability coefficients.

The Increasing of MB concentration enhances the interaction between the dye and C-ZMN providing necessary driving force to overcome the resistance to mass transfer of dye (Gil et al. 2011).

Understanding the driving force of resistance is necessary when choosing an appropriate treatment strategy.

This is due to the fact that increased concentration provides necessary driving force to overcome the resistances to the mass transfer of pesticide between aqueous and solid phase.

As the daughter and granddaughter of preachers, and as someone who has lived in the hills of East Tennessee all my life, I know what a driving force faith is here, as necessary as food and water.

In a previous study, we used mathematical predictions of cell membrane transport to guide the design of a procedure that varies the extracellular solution composition with time to provide the necessary concentration driving force for rapid glycerol removal while keeping the cell volume within osmotic tolerance limits to minimize cell damage.