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1·Fiber orientation is clearly an important structural characteristic in nonwovens.

在非织造布中，纤维取向是一个极其重要的结构特征。

2·The fiber orientation of fiber suspension through two dimensional curved expansion duct is numerically simulated.

本研究数值模拟了弯曲扩张通道纤维悬浮流中的纤维取向分布。

3·Results showed that the flexural strength of ESMC parts was different at different direction of fiber orientation.

研究表明制品在各流动方向上的弯曲强度有很显著的差别。

4·These groups of specimens were selected as related to anatomical fiber orientation, i. e. caudomedially and caudolaterally.

根据解剖学纤维方向（即尾内侧和尾外侧方向）来选择两组标本。

5·The changing regularity of the deformation and compliance of resin matrix composites with the fiber orientation has been discussed.

讨论了树脂基复合材料的柔度和变形随纤维方向的变化规律。

6·Result showed the processing method could make the fiber orientation better and achieve composites that have excellent performance.

实验表明，所采用的复合材料制备方法可使纤维的排布更加有序，并可改进材料的力学性能。

7·The effect of the fiber orientation in non-crimp fabrics on the reinforcing effectiveness of the concrete column cylinders is discussed.

探讨了织物纤维取向不同对系统增强效果的影响。

8·The more attention was paid for the effects of matrix, interface and fiber orientation on stress transfer and stress distribution in composite.

研究中主要讨论了基体、纤维和界面的力学性能以及纤维位向的变化对应力传递和应力分布的影响。

9·The results showed that the fiber orientation distribution was mainly dependent on the shape of the cavity, fiber contents and molding condition.

结果表明，纤维取向分布主要取决于模腔几何形状、纤维含量和注射工艺条件等因素。

10·Some common applications include measuring the structural integrity of white matter, mapping white matter fiber orientation, and tracking white matter pathways.

常见的应用包括测量白质结构的完整性、绘白质纤维走向，以及追踪白质路径。