Sentence examples for clay property from inspiring English sources

Table 1 Physical property indexes of intact yellow silty clay Property Water content w Density ρ (g/cm3) Void ratio e Liquid limit w L Plastic limit w P Saturation Sr Max 38.86 1.837 1.40.12.124.4242 85.68 Min 33.24 1.540 1.02 35.64 20.10 73.84 Ave 37.52 1.684 1.39.87.87 22.18 80.89 Fig. 4 Distributions of the grain size of the yellow-brown earth in karst areas.

Various clay properties such as liquid limit, plastic limit, optimum water content, maximum dry density and specific gravity were studied.

However, this finding is at odds with the main literature, because, for large amounts of clay, it is fundamental to consider the liquidity index LI, which accounts for some important clay properties, like the plasticity.

Group spreading could be caused by that variance in Mn and Ca. This implies a good knowledge of the clay properties (it can be assumed that the used clay contained homogeneously distributed fine-grained CaCO3 particles, which provided easier sintering) and the particular clay sources that were chosen.

It can then be concluded that the nano metakaolined UHPC mix contributed to a low workability effect due to its clay properties and ultrafine size as compared to the OPC and metakaolin.

Micromechanical models (numerical as well as analytical) based on the 'effective clay particle' were employed to calculate the overall elastic modulus of the amorphous and semi-crystalline polymer clay nanocomposites and to compute their dependence on the matrix and clay properties as well as internal clay structural parameters.

This work demonstrates that the intrinsic membrane polymer and clays properties can help to develop a novel proton exchange membranes.

At the same time, with the intercalation of surfactants, the clay surface property is modified.

The decisive clay mineral properties for high-performance CPN are highlighted.

Characterization techniques such as N2 physisorption, mercury porosimetry and scanning electron microscopy (SEM) showed an improvement of the clay textural properties as a consequence of carbon burning.

This review examines the recent literature describing the potential effects of clay-based nanomaterials on cell function and examines the potential role of key clay physicochemical properties in influencing such interactions and their exciting possibilities for regenerative medicine.