The phrase "bridging effect" is a correct and usable term in written English.
It is typically used in linguistics or communications to refer to the way certain words or phrases connect different parts of a sentence or paragraph. It is often used in discussions about discourse structure and coherence. Example: The use of transitional phrases in writing creates a natural bridging effect, allowing readers to easily follow the train of thought from one sentence to the next.
The fracture toughness of CNT/ZrO2 alumina ceramics was also improved by the mechanism of bridging effect.
The incorporation of powder particles in the dielectric medium promotes bridging effect in the insulating dielectric (Chow et al. 2008; Chow et al. 2000; Kansal et al. 2007b).
The toughness appears to be dominated by the ductility/strength of the Ti layers and the strength and crack bridging effect of the ceramic fibers.
The CNTs play a significant role on improving mechanical properties of CBCF composites by pulling-out and bridging effect compared with CBCF composites without CNTs.
Above the CRSD, drastic reductions in core permeability occur due to a log jam, or bridging effect, at the pore constriction.
Retarded crack growth rates in the laminates leading to their enhanced fatigue lives and higher cyclic fracture toughness values vis-à-vis plain specimens substantiate fiber bridging effect in the laminates.
While the rigidity contributed by the fiber bridging effect of the cracked ECC is assumed as follows: left( {EA} right)_{BD,c} = gamma E_{c} bdx (5)in which γ is the reduction factor of the rigidity for cracked ECC.
Lysozyme precipitation by polyacrylic acid (PAA), especially with a high molecular weight of 4×106, where the polymer bridging effect of PAA is thought to be dominant in the particle aggregation of lysozyme precipitates, was carried out to investigate the relationship between the bridging effect of PAA and the operation conditions in a semi-batch reactor.
Whereas, compound 2 contains 2D supramolecular layers constructed by APhEDPH−3 anions, and shows a three-dimensional (3D) tessellate-type supramolecular structure via the bridging effect of 4,4′−bipyH2+2.
It is shown that the hybridization-induced mechanisms, bridging effect, multiple neck formation and localization hindrance, contribute to changes in the strain paths of the individual layers of the hybrid material system.
