frictional prop

简明释义

摩式金属支柱

英英释义

A frictional prop refers to a support or device that relies on friction to hold or stabilize an object in place, often used in engineering or mechanical contexts.

摩擦支撑是指一种依靠摩擦力来保持或稳定物体的位置的支撑装置,通常用于工程或机械领域。

例句

1.The dancer relied on a frictional prop to maintain balance during her performance.

舞者依靠摩擦支撑在表演中保持平衡。

2.The design team incorporated a frictional prop in the prototype to test its durability.

设计团队在原型中加入了摩擦支撑以测试其耐用性。

3.In the robotics lab, we used a frictional prop to ensure the robot's movements were precise.

在机器人实验室,我们使用了摩擦支撑来确保机器人的动作精确。

4.By adjusting the frictional prop, we were able to improve the performance of the vehicle on slippery surfaces.

通过调整摩擦支撑,我们能够提高车辆在滑面上的性能。

5.The engineer explained how the frictional prop can stabilize the structure during high winds.

工程师解释了如何通过摩擦支撑在强风中稳定结构。

作文

In the world of physics and engineering, understanding the concept of forces and their interactions is crucial. One term that often comes up in discussions about motion and stability is the frictional prop. This term refers to a type of support or mechanism that utilizes friction to provide stability and prevent unwanted movement. To better understand this concept, we can explore its applications in various fields, such as construction, robotics, and even everyday life.In construction, for instance, the use of frictional props is essential when building structures that need to withstand heavy loads. These props are designed to create a secure hold by using friction between surfaces. When workers erect scaffolding or temporary supports, they rely on frictional props to ensure that everything remains stable while work is being conducted. The ability of these props to resist sliding or collapsing under pressure is a direct result of the friction generated between the materials.Similarly, in the field of robotics, engineers often use frictional props to stabilize robotic arms and other moving parts. For example, when a robotic arm is tasked with lifting heavy objects, it must maintain its position without slipping. By incorporating frictional props into the design, engineers can enhance the grip and control of the arm, ensuring that it operates smoothly and safely. This application highlights how crucial friction is in maintaining balance and precision in mechanical systems.Everyday life also presents numerous examples of frictional props. Consider the simple act of placing a book on a shelf. The book remains in place due to the friction between its surface and the shelf. If the shelf were tilted, the friction would still play a vital role in preventing the book from sliding off. In this scenario, the shelf acts as a frictional prop, providing the necessary support through friction to keep the book secure.Moreover, the concept of frictional props extends beyond physical objects. In sports, athletes often rely on friction to enhance their performance. For example, runners wear shoes with specific tread patterns designed to maximize grip on the track. The interaction between the shoe and the ground creates a frictional prop effect, allowing the runner to accelerate and change direction efficiently. Without this frictional support, athletes would struggle to maintain control over their movements.In conclusion, the term frictional prop encompasses a wide range of applications across various fields. From construction to robotics and even in our daily activities, the importance of friction in providing stability and support cannot be overstated. By understanding how frictional props work, we can better appreciate the role of friction in both natural and engineered systems. As we continue to innovate and develop new technologies, the principles behind frictional props will remain fundamental to ensuring safety and efficiency in our designs.

在物理和工程的世界中,理解力和它们之间相互作用的概念至关重要。一个在讨论运动和稳定性时常常出现的术语是摩擦支撑。这个术语指的是一种利用摩擦提供稳定性并防止不必要移动的支撑或机制。为了更好地理解这一概念,我们可以探讨它在建筑、机器人甚至日常生活等各个领域的应用。例如,在建筑中,使用摩擦支撑在建造需要承受重载的结构时至关重要。这些支撑被设计用来通过表面之间的摩擦产生安全的固定。当工人搭建脚手架或临时支撑时,他们依赖于摩擦支撑确保一切在工作进行时保持稳定。这些支撑抵抗压力下滑或坍塌的能力直接源于材料之间产生的摩擦。同样,在机器人领域,工程师经常使用摩擦支撑来稳定机器人手臂和其他活动部件。例如,当机器人手臂负责举起重物时,它必须保持位置而不滑动。通过将摩擦支撑融入设计中,工程师可以增强手臂的抓握和控制,确保其平稳安全地操作。这一应用突显了摩擦在维持机械系统的平衡和精确性方面的重要性。日常生活也提供了许多摩擦支撑的例子。考虑将一本书放在书架上的简单行为。书籍之所以能够保持原位,是由于其表面与书架之间的摩擦。如果书架倾斜,摩擦仍然在防止书籍滑落方面发挥着重要作用。在这个场景中,书架充当了摩擦支撑,通过摩擦提供必要的支撑,使书籍保持安全。此外,摩擦支撑的概念超越了物体本身。在运动中,运动员往往依靠摩擦来增强他们的表现。例如,跑步者穿着特定花纹设计的鞋子,以最大程度地提高在跑道上的抓地力。鞋子与地面之间的相互作用创造了摩擦支撑效应,使跑步者能够高效加速和改变方向。如果没有这种摩擦支撑,运动员将难以控制他们的动作。总之,术语摩擦支撑涵盖了各个领域的广泛应用。从建筑到机器人,甚至在我们的日常活动中,摩擦在提供稳定性和支撑方面的重要性不可低估。通过理解摩擦支撑的工作原理,我们可以更好地欣赏摩擦在自然和工程系统中的作用。随着我们继续创新和开发新技术,摩擦支撑背后的原则将始终是确保我们设计的安全性和效率的基础。

相关单词

frictional

frictional详解:怎么读、什么意思、用法

prop

prop详解:怎么读、什么意思、用法