Twenty-nine friction material specimens with different relative amounts of the ingredients were manufactured according to a constrained mixture design.
The starch hemp composite material specimens with five hemp/starch ratios, 6, 8, 10, 12 and 14, were manufactured by using the optimal binder.
This index is benchmarked against the ASTM index using computer generated images and images experimentally obtained from thirty CNT composite material specimens with different CNT loading rates up to twenty volume percent.
The elastic modulus of composite material specimens with only 0.15 weight percent aligned MWCNTs is observed to be 44% higher than specimens with randomly oriented MWCNTs, and 51% higher than specimens without MWCNTs.
The elastic modulus and ultimate tensile strength of composite material specimens with aligned MWCNTs, fabricated using this technique, are evaluated and compared with specimens consisting of randomly oriented MWCNTs and resin material without MWCNTs.
There were equal amounts of CFU recovered from root filling material specimens with PDT and the combination of NaOCl irrigation followed by PDT.
Quantitative retardation based on the residual stresses with an effective stress intensity factor has been developed using MWM and applied to the material specimen: plates with center crack-350 WT Steel, 7075-T6 Alloylloy and plate with edge crack for 6061-T6-Al-Alloy to predict the design life of components under various fatigue loadings.
The starch-hemp composite materials specimens with five Hemp/Starch ratios (H/S = 6, 8, 10, 12 and 14), were manufactured by using the optimal binder and two hemp shives (0 15 mm and 0 20 mm).
The proportion of cementation in similar material increases linearly with the strength of similar material specimen.
The local singularity and fracture characterization of a functionally graded material (FGM) specimen with a crack oriented along the direction of the elastic gradient were studied combining optical caustics technology with the finite element method.
