1) electric displacement intensification
电位移增强
3) electric displacement intensity factor
电位移强度因子
1.
We obtained the displacement, stress, electric potential and electric displacement around the crack in the infinite piezoelectric medium by way of Fourier transform, and then the dynamic stress intensity factor, the electric displacement intensity factor and electric field intensity factor near the crack tip were obtai.
假设裂纹面上的边界条件为电渗透型的,从而导出了材料系数在横观各向同性平面内梯度分布的压电体的状态方程;利用Fourier变换给出了无限大压电体中位移、应力、电势、电位移的解析表达式;并求得了裂纹尖端动应力强度因子、电位移强度因子及电场强度因子,分析了不同的非均匀材料系数、几何尺寸及裂纹运动速度对它们的影响。
4) displacement current intensity
位移电流强度
5) enhanced specialized mobile radio (ESMR)
增强型专用移动无线电
6) In-situ Reinforcement
原位增强
1.
In-situ Reinforcement of Silicone Rubber;
有机硅橡胶原位增强新工艺
2.
As a novel technology,the in-situ reinforcement of silicone polymer via sol-gel process is effective in promoting the dispersion of various fillers in polymer matrix and avoiding the agglomeration of fillers.
基于溶胶-凝胶原理的有机硅橡胶原位增强新方法有效地解决了填料在聚合物基体中的分散和团聚问题,可得到具有更好机械性能和耐热性能的有机硅材料。
3.
The effects of the contents of different regulators including D-sorbital, mannose, galactose, glucose, and fructors on the growth of hydroxyapaptite crystal seeds were studied, and the crystal seeds obtained were then applied to the in-situ reinforcement of calcium phosphate cement.
在此基础上，进一步将合成的晶种应用于磷酸钙骨水泥（简称ＣＰＣ）的原位增强中，使水化产物晶体之间定向生长和排列，从而达到对ＣＰＣ进行增强的目的。