The attachment kinetics of the point defects to the void surface affects the overall void growth rate, as was shown in the numerical simulations of the sharp-interface model (El-Azab et al., 2014; Hochrainer & El-Azab, 2015).
The conductive property test and the compressive strength of this concrete in the laboratory show that the dispersion uniformity of the carbon fiber, as well as the concrete voids, significantly affects conductivity.
An important aspect of the cavitation process is the size of cavities because, together with the number of voids, it affects the behavior and properties of the material.
The formation resistivity factor of the proposed network model is almost entirely controlled by pore throat radius, whereas both pore throat and void radii affect cementation factor.
In particular, insulating concrete, a material designed for reducing heat conduction, contains numerous voids within the material, and these voids strongly affect the physical properties of the material, such as thermal conductivity and strength.
The results demonstrate an effect of anisotropic voids on the material properties that appropriately arranged anisotropic voids strongly affect the reduction of thermal conductivity for a specific direction, and that anisotropic voids can be utilized as a promising approach to develop high-performance insulating materials.
It contains numerous voids induced by the use of air-entraining admixtures or aggregates, and these voids strongly affect the characteristics and responses of the material.
The study suggested that the z-binder affects void content in 3D woven composites since the amount of resin flowing between warp and weft tows is partly inhibited by the binders.
Many studies carried out under real conditions have revealed that the signatures derived from interaction between seismic signals and voids are affected by complex geology, thus making them difficult to interpret.
