These core effects are modified by five 'dimensions': spatial and temporal variation in matrix quality; spatial scale; temporal scale of matrix variation; and adaptation.
The nano-core effect is proposed through integrating core-effect with nano effect, and is proved by experimental evidences for the cementitious composites with different nano fillers.
It is therefore concluded that the nano-core effect is fundamental for design, fabrication and application of the nano-engineered cementitious composites.
The nano-core effect is closely relative to the intrinsic properties of nano fillers, composition and processing of the cementitious composites.
To improve this model, a new model to describe the effect of the honeycomb core was developed.
In this model, the effect of the honeycomb core was modeled by an empirical corrective factor, which was not related to the physical of the impact.
Conversely, P8Am could not facilitate endosomal release through the proposed proton sponge effect so the PEI core was required for the P8Am-coated quaternary polyplexes to ensure efficient transfection.
Shear cracking in the core was the dominant effect of all blast loading.
Siro core spinning system with double roving as outer layers and stainless steel core was examined for the effects of orientation of fibres within the structure by Ortlek et al. (2012).
The same pattern of significant dose response effects was seen in core-lesioned rats and, furthermore, the effect of 1.0 mg/kg d-amphetamine on increasing premature responses was potentiated relative to the effect in shams (P = 0.008).
The importance of the simplicity of models is hotly debated, as some fear that adding parameters will obscure the core effects that are being analysed.
