MONO specimen attained the maximum strength at 1.75% drift ratio.
The optimal ratio (75%% fine sand, 25%% cement) was determined to obtain the maximum strength at a minimum curing time.
It can be further observed from the figures that maximum strength at the optimum level of clay sand combination, clay-medium sand mixtures have shown to have maximum strength, followed by clay-fine sand and clay-coarse sand mixtures.
The results showed that the 0.25 wt% CNTs is the optimum weight fraction in terms of achieving maximum strength at a reasonable cost.
SP3-R specimen attained maximum strength at 2.2% drift ratio and first degradation in strength was observed at the second cycle of 3.5 drift ratio as shown in Fig. 16f.
However, it can be inferred that the positive effects can outweigh the negative effects even above the eutectic temperature, thereby realizing the maximum strength at such relative high temperature levels.
For nanotwinned copper a grain size of 500 nm, the model predicts a critical twin spacing for the maximum strength at 13 nm, in excellent agreement with experimental observations.
All subjects were verbally encouraged to achieve maximum strength at each strength test (concentric, isometric, and eccentric), and the maximum torque developed was calculated by the software of the isokinetic dynamometer.
For example, liver, heart, and muscle tissue began to glow 24 hours postfertilization and reached maximum strength at 96 hours, whereas a significant increase in fluorescence was seen in the otic vesicles 48 hours postfertilization, and in the eyes and forebrain after 72 hours.
SP2 and SP3 specimens showed similar behavior and maximum strengths were attained at 2.2% drift ratio as shown in Fig. 16c, d.
