magnetic damper
简明释义
磁阻尼器磁减震器
英英释义
A magnetic damper is a device that uses magnetic fields to control and reduce vibrations or oscillations in mechanical systems. | 磁阻尼器是一种利用磁场来控制和减少机械系统中的振动或摆动的装置。 |
例句
1.In the latest model of the car, the magnetic damper provides a smoother ride by adjusting to road conditions.
在最新款汽车中,磁性阻尼器通过适应路况提供更平稳的驾驶体验。
2.By using a magnetic damper, the performance of the audio equipment can be significantly improved.
通过使用磁性阻尼器,音频设备的性能可以显著提升。
3.The magnetic damper in the industrial machine helps maintain stability during operation.
工业机器中的磁性阻尼器有助于在操作过程中保持稳定性。
4.The engineer designed a new suspension system that incorporates a magnetic damper to reduce vibrations.
工程师设计了一种新的悬挂系统,采用了磁性阻尼器来减少振动。
5.Researchers are exploring the use of magnetic dampers in earthquake-resistant buildings.
研究人员正在探索在抗震建筑中使用磁性阻尼器。
作文
In the field of engineering and technology, the term magnetic damper refers to a device that uses magnetic fields to reduce vibrations and oscillations in various systems. This innovative mechanism has gained significant attention due to its ability to enhance stability and performance in a wide range of applications, from automotive engineering to civil structures. The principle behind a magnetic damper lies in the interaction between magnetic fields and moving components, which can effectively absorb kinetic energy and dissipate it as heat. One of the most notable advantages of using a magnetic damper is its non-contact operation. Unlike traditional dampers that rely on friction or mechanical contact to function, a magnetic damper operates without physical contact between its parts. This feature not only reduces wear and tear but also minimizes maintenance requirements, making it an ideal choice for long-term applications. For instance, in high-speed trains, where vibrations can significantly affect passenger comfort and safety, magnetic dampers are employed to ensure a smooth ride by counteracting the oscillations caused by track irregularities.Furthermore, magnetic dampers can be easily integrated into existing systems. Engineers can design them to fit various structures and machines, allowing for customization based on specific needs. In buildings, magnetic dampers are increasingly used to improve seismic performance. During an earthquake, these devices can reduce the sway of tall structures, thereby protecting both the building and its occupants. This capability is crucial in urban areas prone to seismic activities, where the safety of infrastructure is paramount.The versatility of magnetic dampers extends to consumer electronics as well. For example, they can be found in stabilizing gimbals used in cameras, where they help maintain steady footage by counteracting unwanted movements. In this context, the magnetic damper plays a vital role in ensuring high-quality video production, demonstrating its importance beyond industrial applications.Despite their many benefits, the implementation of magnetic dampers is not without challenges. The initial cost of developing and manufacturing these devices can be higher than that of conventional dampers. However, the long-term savings associated with reduced maintenance and increased lifespan often justify the investment. As research and technology continue to advance, it is likely that we will see more cost-effective solutions that utilize magnetic dampers in various fields.In conclusion, the magnetic damper represents a significant advancement in vibration control technology. Its ability to provide efficient, non-contact damping makes it a valuable asset in numerous applications, from transportation to construction and consumer electronics. As engineers and researchers explore new ways to harness the power of magnetism, the future of magnetic dampers looks promising, paving the way for safer and more efficient systems across different industries.
在工程和技术领域,术语磁阻尼器指的是一种利用磁场来减少各种系统中的振动和摆动的装置。这种创新机制因其在广泛应用中增强稳定性和性能的能力而受到极大关注,从汽车工程到土木结构都可以看到它的身影。磁阻尼器的原理在于磁场与运动部件之间的相互作用,这可以有效地吸收动能并将其以热量的形式散发出去。使用磁阻尼器的一个显著优势是其非接触操作。与依赖摩擦或机械接触来工作的传统阻尼器不同,磁阻尼器在其部件之间没有物理接触。这一特性不仅减少了磨损,还最小化了维护需求,使其成为长期应用的理想选择。例如,在高速列车中,振动会显著影响乘客的舒适度和安全性,因此采用磁阻尼器来抵消轨道不规则性引起的振荡,以确保平稳的行驶。此外,磁阻尼器可以轻松集成到现有系统中。工程师可以根据特定需求设计它们以适应各种结构和机器。在建筑中,磁阻尼器越来越多地用于改善抗震性能。在地震发生时,这些设备可以减少高层建筑的摇摆,从而保护建筑物及其居住者。这一能力在易发生地震的城市地区至关重要,因为基础设施的安全性至关重要。磁阻尼器的多功能性还扩展到消费电子产品中。例如,它们可以在用于摄像机的稳定器中找到,在这些设备中,它们通过抵消不必要的运动来保持稳定的画面。在这个背景下,磁阻尼器在确保高质量视频制作中发挥着至关重要的作用,展示了其在工业应用之外的重要性。尽管有许多好处,但实施磁阻尼器并非没有挑战。开发和制造这些设备的初始成本可能高于传统阻尼器。然而,与减少维护和延长使用寿命相关的长期节省通常可以证明这一投资是合理的。随着研究和技术的不断进步,未来可能会出现更多经济有效的解决方案,利用磁阻尼器在各个领域。总之,磁阻尼器代表了振动控制技术的一项重大进步。其提供高效、非接触阻尼的能力使其在运输、建筑和消费电子等众多应用中成为宝贵的资产。随着工程师和研究人员探索利用磁力的新方法,磁阻尼器的未来看起来很有前景,为各行各业的更安全、更高效的系统铺平了道路。
相关单词