1) coupled mode
耦合形式
3) coupling deformation
耦合变形
1.
On micro scanning forces under the coupling deformation of atomic force microscope probe;
原子力显微镜探针耦合变形下的微观扫描力研究
2.
According to the theory of thin-walled bar with closed section,a combined mod-el is esta blished of coupling deformation,and an accurate method of analysing stresses between lay-ers is suggested.
用封闭截面薄壁杆理论建立的夹芯杆耦合变形的组合模型得到了芯层应力和层间结合应力的精确化分析方法，并给出了箱形截面杆的分析结果。
3.
Only the wall rock of tunnel was stressed uniformly,the objective of coupling deformation would be realized,that can enable the tunnel wall rock stress and support pattern to reach the optimal combination and decrease the cost of support.
得出了只有使巷道围岩受力均匀,达到耦合变形的目的,才能使围岩压力与支护方式达到最佳组合,降低支护成本。
4) coupled deformation
耦合变形
1.
Based on Von Karman s deformational theory,the coupled effects between the coupled deformation of middle plane of beams and large overall motions is presented.
基于 Von- Karman变形理论 ,描述了弹性梁中面的耦合变形和大范围刚体运动之间的耦合 ,利用 Jourdain速度变分原理和单向递推建模方法建立了由梁式构件组成的树状柔性多体系统的程式化耦合动力学方程 ,通过两个典型算例验证了这种耦合变形和大范围运动之间的耦合效应对作高速大范围刚体运动柔性多体系统动力学性质的影
2.
Results show that the piston thermo-mechanical coupled stress is mainly influenced by mechanical load and coupled deformation is mainly influenced by thermal load.
因此,对活塞在热负荷和机械负荷共同作用下的耦合变形、应力进行有限元分析,了解活塞的变形和应力分布情况,对改进活塞设计,提高其工作可靠性具有重要意义。
5) conformal couple
共形耦合
6) mode coupling
模式耦合
1.
The high frequency field structure of Gyrotron for gradual transitions complex cavities is analyzed based on the mode coupling theory in this paper.
从模式耦合理论出发系统地研究了回旋管中过渡渐变复合腔的高频场结构,并考虑了TM型寄生模式的影响。
2.
There existed strong mode coupling when light traveling in the polymer optical fiber(POF).
光在聚合物光纤(POF)中传输时存在较强的模式耦合,由于模式耦合的影响,聚合物光纤的传输带宽得以提高。
3.
Due to the fact that the mode coupling and the mode-dependent loss can be neglected for short fibers, the measured values of the differential mode delay for the 1 m.
实验结果表明 ,由于短光纤可以忽略模式耦合和模式损耗 ,1m塑料光纤的微分模延迟测量值与理论计算值吻合得非常好。
补充资料：大坝内部变形观测(见水工建筑物变形观测)
大坝内部变形观测(见水工建筑物变形观测)
daba neibubianxing guanCe大坝内部变形观测见水工建筑物变形观测。
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