For simplification, we restrict the material behavior of the micro-RVE to linear thermo-chemo-elasticity.
The uncertainty in the operating condition, hence the dynamic behavior, of the micro-mechanism is studied using a statistic approach.
Nanoparticle compaction is usually difficult, but the compaction behavior of the micro-granules is similar to that of the micro powder.
The effect of nanoparticle addition on sinterability, investigated by dilatometry, includes double-stage sintering behavior of the micro-granule powder, whereas the spiky-shaped micro powder shows a typical monotonous sintering behavior.
For strongly disordered cellular structures, the thus parametrized Cosserat continuum produces results that reproduce the behavior of the micro-scale beam models both in view of the observed strain patterns and in view of the macroscopic response, including its size dependence.
To further understand the capacitive behavior of the micro-HC/nano-MnO2 composite, the cycling stability of the composite electrode was further examined by galvanostatic charge discharge tests for 2,000 cycles at low current density of 5 mA cm−2 (cycle potential window: 0 1.0 V vs. SCE), as shown in Fig. 6.
The typical simulated model output and parametric analyses are presented with important trends and behaviors of the micro-motor motion, including stochastic features of rotary and vertical motion, and experimental validation.
A parametric study is conducted to investigate the influences of the initial gap, base length, arc rise, and initial curved configuration on the snap-through and pull-in behaviors of the micro-beam.
First, a micro-dynamic model is proposed to capture the complicated hysteresis behavior of the nonlinear micro-dynamics.
The uniaxial fatigue behavior of the Cu Nb micro-composite conductor has been studied considering the effect of peak stress and stress ratio (ratio of the minimum stress to peak stress).
