axially

简明释义

英[ˈæksiəli]美[ˈæksiəli]

adv. 轴向地

英英释义

单词用法

同义词

反义词

例句

1.The laterally nonlinear vibration of axially moving plates was analyzed by the incremental harmonic balance (IHB) method.

应用增量谐波平衡法(IHB法)研究轴向运动薄板横向非线性振动特性及其稳定性。

2.The number results show that the IHB method is a very effective semi-analytical and semi-numerical method for nonlinear vibration of axially moving systems.

数值结果表明了IHB法是一个求解轴向运动体系非线性振动的非常有效的半解析、 半数值的方法。

3.A new kind of axially movable vane turbocharger was presented, and its structure was investigated.

提出了一种轴向移动喷嘴叶片可变几何截面增压器的新结构方案。

4.Prof 2: Concerns axially or concerns design axially?

教授2：轴向涉及或轴向涉及设计？

5.In this paper, the transverse vibration and stability of an axially moving rectangular membrane, subjected to two direction pull forces, are analyzed.

本文研究了双向受拉力作用下的轴向运动矩形薄膜的横向振动和稳定性问题。

6.The reliability estimation of steel columns axially loaded compression members) and bended members are discussed by minimization method.

给出了轴心受压钢构件和受压钢件和受弯钢构件可靠性评估的公式和图表。

7.The J-band image from H01 is elongated and axially symmetric.

来自H01的近红外J波图像是轴对称的的延伸图像。

8.The SPAR element assumes a straight bar, axially loaded at its ends, and of uniform properties from end to end.

该杆单元假设为直杆，在端部施加力为轴向荷载，材料特性沿全长均质。

9.This cone is free to move axially against the resistance of a spring.

这锥是免费的轴向移动对抵抗的春天。

10.The cylindrical rod was tested for strength by applying force axially 轴向地 along its length.

这个圆柱形杆通过沿其长度施加力来测试强度，力是轴向地施加的。

11.In the experiment, the load was distributed axially 轴向地 to observe the deformation of the material.

在实验中，负载被轴向地分布，以观察材料的变形。

12.The bearings are designed to handle forces applied axially 轴向地 as well as radially.

这些轴承设计用于处理轴向地和径向施加的力。

13.The shaft rotates while the torque is applied axially 轴向地 to ensure smooth operation.

在确保平稳运行的同时，扭矩是轴向地施加到轴上的。

14.The structural analysis showed that the beam could withstand loads applied axially 轴向地 without failure.

结构分析显示，该梁可以承受轴向地施加的负载而不发生失效。

作文

In the realm of physics and engineering, understanding the concept of motion is crucial. One important aspect of motion is how objects behave when they are subjected to forces. In particular, we often analyze the behavior of objects in terms of their rotational and translational movements. A key term that comes into play in this analysis is 'axially'. When we say that an object rotates axially, we refer to its rotation around an imaginary line that runs through its center. This line is known as the axis of rotation, and it plays a fundamental role in determining how the object will move and respond to external forces. For example, consider a spinning top. When you spin a top, it rotates axially around its central axis. This axis is perpendicular to the surface on which the top spins. The stability of the top while it is spinning can be attributed to its axial rotation. If the top were to wobble, it would indicate that the forces acting upon it are unbalanced, which could lead to its eventual fall. In engineering applications, understanding axial rotation is essential for designing various machines and structures. For instance, in the design of turbines, engineers must take into account how the blades rotate axially to maximize efficiency. The angle at which the blades are positioned relative to the axial direction can significantly impact the performance of the turbine. By optimizing this angle, engineers can ensure that the turbine operates effectively, converting kinetic energy from fluid flow into mechanical energy. Moreover, in the field of robotics, the concept of axial movement is vital for creating robots that can perform tasks with precision. Robotic arms, for example, often have joints that allow them to move axially around specific points, enabling them to reach various positions and orientations. The ability to control these axial movements allows robots to perform complex tasks such as assembling products or performing delicate surgeries. Additionally, understanding axial alignment is crucial in fields like astronomy. Celestial bodies, such as planets and stars, often rotate axially around their axes. The tilt of a planet's axis can affect its climate and seasons. For instance, Earth's axial tilt is responsible for the changing seasons we experience throughout the year. As the Earth orbits the sun, different parts of the planet receive varying amounts of sunlight due to this axial tilt, leading to seasonal changes. In conclusion, the term axially encapsulates a fundamental principle that is applicable across various disciplines, from physics and engineering to robotics and astronomy. By understanding how objects rotate axially, we can better comprehend the dynamics of motion and apply this knowledge to innovate and solve problems in our world. Whether it's designing efficient machines, creating advanced robotic systems, or studying the cosmos, the concept of axially is integral to our understanding of the physical universe.

在物理和工程领域，理解运动的概念至关重要。运动的一个重要方面是物体在受力时的行为。特别是，我们经常分析物体在其旋转和平移运动方面的表现。一个关键术语是“axially”（轴向地）。当我们说一个物体围绕其中心的虚拟线旋转时，我们指的是它围绕旋转轴的旋转。这个线称为旋转轴，它在确定物体如何运动和响应外力方面起着基本作用。 例如，考虑一个陀螺。当你旋转陀螺时，它围绕其中心轴旋转。这个轴与陀螺旋转的表面垂直。陀螺在旋转时的稳定性可以归因于其轴向旋转。如果陀螺开始摇晃，这将表明作用在其上的力是不平衡的，这可能导致其最终倒下。 在工程应用中，理解轴向旋转对于设计各种机器和结构至关重要。例如，在涡轮机的设计中，工程师必须考虑叶片如何轴向旋转以最大化效率。叶片相对于轴向方向的角度可以显著影响涡轮机的性能。通过优化这个角度，工程师可以确保涡轮机有效运行，将流体流动的动能转换为机械能。 此外，在机器人技术领域，轴向运动的概念对于创建能够精确执行任务的机器人至关重要。例如，机器人手臂通常具有允许它们围绕特定点轴向移动的关节，使它们能够达到各种位置和方向。控制这些轴向运动的能力使机器人能够执行复杂的任务，如组装产品或进行精细手术。 此外，理解轴向对齐在天文学等领域也至关重要。天体，如行星和恒星，通常围绕其轴向旋转。行星的轴向倾斜会影响其气候和季节。例如，地球的轴向倾斜是我们一年四季变化的原因。当地球绕太阳公转时，由于这种轴向倾斜，地球的不同部分接收到不同数量的阳光，从而导致季节变化。 总之，术语“axially”（轴向地）概括了一个适用于各个学科的基本原理，从物理和工程到机器人技术和天文学。通过理解物体如何轴向旋转，我们可以更好地理解运动的动态，并将这一知识应用于创新和解决我们世界中的问题。无论是设计高效的机器，创建先进的机器人系统，还是研究宇宙，轴向的概念都是我们理解物理宇宙的核心。