gear mechanism

简明释义

齿轮机构

英英释义

例句

1.The watch's accuracy is largely due to its intricate gear mechanism 齿轮机制.

这款手表的准确性在很大程度上归功于其复杂的齿轮机制。

2.The toy car uses a simple gear mechanism 齿轮机制 to move forward when wound up.

这辆玩具车使用简单的齿轮机制在上紧发条后向前移动。

3.In bicycles, the gear mechanism 齿轮机制 allows for smooth shifting between different speeds.

在自行车中，齿轮机制使得在不同速度之间平稳换档成为可能。

4.The engineer explained how the gear mechanism 齿轮机制 helps to increase torque in the machine.

工程师解释了齿轮机制如何帮助增加机器的扭矩。

5.A faulty gear mechanism 齿轮机制 can lead to significant operational issues in machinery.

故障的齿轮机制可能导致机器操作中的重大问题。

作文

The world around us is filled with intricate machines that perform various tasks, and one of the most fascinating components of these machines is the gear mechanism. A gear mechanism is a system of gears that interact with each other to transmit motion and torque. This fundamental concept is essential in many engineering applications, from simple toys to complex industrial machinery. Understanding how a gear mechanism works can provide insight into the principles of mechanical engineering and design.Gears are circular objects with teeth that mesh together to create movement. When one gear turns, it causes the connected gear to turn as well. This interaction allows for the transfer of energy and motion between different parts of a machine. The arrangement and size of the gears within a gear mechanism can vary greatly, influencing the output speed and torque of the system. For instance, if a smaller gear drives a larger gear, the larger gear will turn more slowly but with greater force. This principle is often utilized in vehicles, where the engine's power is transmitted through a series of gears to the wheels.A common example of a gear mechanism is found in bicycles. The bicycle's drivetrain consists of a series of gears that allow the rider to adjust the resistance when pedaling. By shifting gears, the cyclist can make pedaling easier on flat terrain or increase resistance when climbing hills. This ability to change gears is crucial for optimizing performance and efficiency.In addition to bicycles, gear mechanisms are also prevalent in clocks and watches. The precise movement of the hands is achieved through a series of gears that work together in harmony. Each gear must be perfectly calibrated to ensure accurate timekeeping. This complexity highlights the importance of precision engineering in creating reliable mechanical devices.Furthermore, gear mechanisms are not limited to mechanical applications; they also play a significant role in robotics and automation. Robots often use gears to achieve precise movements and control. For example, robotic arms utilize gear mechanisms to manipulate objects with accuracy and dexterity. The integration of gears in robotics allows for the development of machines that can perform delicate tasks, such as assembling electronics or performing surgery.In conclusion, the gear mechanism is a vital component in many mechanical systems that we encounter in our daily lives. Its ability to transmit motion and torque efficiently makes it indispensable in various fields, including transportation, timekeeping, and robotics. By understanding the principles behind gear mechanisms, we can appreciate the complexity and ingenuity of the machines that shape our world. Whether it’s the simple act of pedaling a bike or the intricate workings of a robot, gear mechanisms are at the heart of modern engineering, driving innovation and functionality in countless applications.

我们周围的世界充满了复杂的机器，它们执行各种任务，而这些机器中最迷人的组成部分之一就是齿轮机制。齿轮机制是一个齿轮系统，这些齿轮相互作用以传递运动和扭矩。这个基本概念在许多工程应用中都是必不可少的，从简单的玩具到复杂的工业机械。了解齿轮机制的工作原理可以提供对机械工程和设计原则的深入理解。齿轮是带有齿的圆形物体，它们相互啮合以产生运动。当一个齿轮转动时，它会导致连接的齿轮也转动。这种相互作用允许能量和运动在机器的不同部分之间传递。齿轮机制中齿轮的排列和大小可以有很大不同，影响系统的输出速度和扭矩。例如，如果一个较小的齿轮驱动一个较大的齿轮，则较大的齿轮将转动得更慢，但力量更大。这一原理常用于车辆中，发动机的动力通过一系列齿轮传递到车轮。一个常见的齿轮机制例子可以在自行车中找到。自行车的传动系统由一系列齿轮组成，允许骑行者在踏板时调整阻力。通过换档，骑自行车的人可以在平坦的地形上使踏板更轻松，或者在爬坡时增加阻力。这种换档能力对于优化性能和效率至关重要。除了自行车，齿轮机制在钟表和手表中也很普遍。指针的精确移动是通过一系列相互协调工作的齿轮实现的。每个齿轮必须完美校准，以确保准确的计时。这种复杂性突显了精密工程在创建可靠机械设备中的重要性。此外，齿轮机制不仅限于机械应用；它们在机器人技术和自动化中也发挥着重要作用。机器人通常使用齿轮来实现精确的运动和控制。例如，机器人手臂利用齿轮机制以准确和灵巧的方式操纵物体。在机器人技术中整合齿轮使得开发能够执行精细任务的机器成为可能，例如组装电子产品或进行手术。总之，齿轮机制是我们日常生活中许多机械系统中的重要组成部分。它高效传递运动和扭矩的能力使其在交通、计时和机器人等各个领域中不可或缺。通过理解齿轮机制背后的原理，我们可以欣赏塑造我们世界的机器的复杂性和独创性。无论是简单的骑自行车动作还是机器人的复杂运作，齿轮机制都是现代工程的核心，推动着无数应用中的创新和功能。