1) damage cavity density
损伤空洞密度
1.
The relationship between damage cavity density and percent composition of ∑3 sub-grain boundary structure in material was determined and the predicted result were validated.
利用该方法建立损伤空洞密度与∑3亚晶界结构百分数关系曲线,并对预测的结果进行验证。
2) void damage
空洞损伤
1.
Interface void damage is the failure characteristic of solder joint under temperature cycling.
温度循环载荷可以在焊点界面处形成足以导致空洞损伤发生的高应力三轴度。
2.
The classical pressure vessel problem for void damage materials is studied from the theory of microstructure in linear elasticity.
根据微弹性结构线性理论研究了带空洞损伤的压力容器问题，解答是准静态的，其应力场为古典弹性力学关于球体对称压力容器问题应力解答，位移场和损伤场具有由于考虑损伤而表现出体积粘弹性特点
3) Density caviton
密度空洞
1.
In this paper, using the method of numerical simulation, the nonsteady, nonlinear interactions between moving body and plasma have been studied in detail,and the distributions of electric field and density caviton are obtained.
计算结果显示 ,在飞行器的尾区 ,飞行器上的天线系统可以作为调制不稳定性的激发源 ,激发出可探测的密度空洞和电磁孤波 。
4) Void damage
孔洞损伤
1.
The fracture of differ ent mixed loading obeys the void damage mechanism and is controlled by ma.
不同复合型下的断裂遵循等轴状孔洞损伤机制，最大周向拉应力是铝合金复合型断裂的力学控制因素。
2.
A mathematical cognition model on anisotropic void damage by multi directional tomography is established in the present paper.
建立各向异性孔洞损伤的多方位层析识别数学模型。
3.
Superplastic intergranular fracture due to the grain boundary void damage and relationships between grain boundary struct.
包括：基于晶界拓扑构造、统计规律以及能量耗散的力学模型；论述了由孔洞损伤导致的超塑性沿晶破坏、晶界结构演化与宏观率敏感性之间的关系；列举了考虑晶界效应的典型超塑性数值模型；总结并讨论了晶界滑移定量表征的重要实验手段，指出超塑性研究中需进一步拓展的领域：多尺度耦合的超塑性力学、材料制备及组合工艺中利用超塑性。
5) density damage increment
密度损伤增量
1.
Rock density damage increment with CT can be obtained by subtracting CT number of the undisturbed rock samples from that of the loaded rock samples.
通过对岩石试样在加载前后测得的CT数作差值运算,可获得岩石试样在不同应力阶段的CT密度损伤增量。
2.
CT image analysis and density damage increment analysis are two approaches based on X-ray CT.
CT图像分析和密度损伤增量分析是X射线CT方法的两种手段。
3.
This paper analyzes the meso damage process of rock using the combination of the macroscopic axial stress with the density damage increment.
采用宏观轴向应力与密度损伤增量结合分析岩石细观损伤演化过程。
6) density damage increment field
密度损伤增量场
补充资料：非密度制约因素(见密度制约因素)
非密度制约因素(见密度制约因素)
l焦非密度制约因素见生态因素、密度制约后
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条