antimagnetic shield
简明释义
抗磁屏蔽;
英英释义
An antimagnetic shield is a protective barrier designed to prevent or reduce the effects of magnetic fields on sensitive electronic devices or materials. | 抗磁屏蔽是一种保护屏障,旨在防止或减少磁场对敏感电子设备或材料的影响。 |
例句
1.To enhance performance, the drone is equipped with a specialized antimagnetic shield.
为了提高性能,无人机配备了专门的抗磁屏蔽。
2.Manufacturers are increasingly using antimagnetic shields in their devices to meet industry standards.
制造商越来越多地在其设备中使用抗磁屏蔽以满足行业标准。
3.In laboratories, equipment often has an antimagnetic shield to ensure accurate measurements.
在实验室中,设备通常具有抗磁屏蔽以确保测量的准确性。
4.The new wristwatch features an antimagnetic shield to protect it from magnetic fields.
这款新手表配备了一个抗磁屏蔽,以保护它免受磁场的影响。
5.The antimagnetic shield in the camera prevents distortion caused by nearby electronics.
相机中的抗磁屏蔽防止了附近电子设备造成的失真。
作文
In the world of science and technology, the concept of an antimagnetic shield plays a crucial role in various applications, particularly in the fields of electronics and telecommunications. An antimagnetic shield is designed to protect sensitive electronic devices from the disruptive effects of magnetic fields. These shields are typically made from materials that can either absorb or redirect magnetic waves, ensuring that the devices operate smoothly without interference. The importance of an antimagnetic shield cannot be overstated, especially in environments where strong magnetic fields are present, such as near industrial machinery or medical equipment like MRI machines. For instance, in hospitals, certain medical devices must function without any disturbance caused by external magnetic fields. An antimagnetic shield ensures that these devices can provide accurate readings and perform necessary functions without being affected by nearby magnetic sources. Moreover, the use of an antimagnetic shield extends beyond medical applications. In consumer electronics, devices such as smartphones, laptops, and gaming consoles often incorporate these shields to enhance performance and user experience. By minimizing magnetic interference, manufacturers can ensure that their products deliver better audio and video quality, as well as improved connectivity. The design and effectiveness of an antimagnetic shield depend on several factors, including the type of material used, the thickness of the shield, and the frequency of the magnetic fields it aims to block. Common materials for antimagnetic shields include mu-metal, a nickel-iron alloy known for its high magnetic permeability, and other specialized composites that can effectively attenuate magnetic fields. In addition to their protective capabilities, antimagnetic shields also contribute to the overall safety of electronic devices. For example, in aerospace applications, where equipment is exposed to varying magnetic fields during flight, having an antimagnetic shield is essential to prevent malfunctions that could jeopardize safety. Engineers and designers must consider the presence of magnetic fields when creating systems for aircraft and spacecraft, making the antimagnetic shield a vital component in these industries. Furthermore, the advancement of technology continues to push the boundaries of what is possible with antimagnetic shields. Researchers are exploring new materials and innovative designs to enhance the effectiveness of these shields, making them lighter, thinner, and more efficient. As we move towards a future filled with increasingly sophisticated electronic devices, the role of the antimagnetic shield will only become more significant. In conclusion, the antimagnetic shield is an essential element in modern technology, providing protection against magnetic interference in various applications. Its ability to safeguard sensitive electronic devices ensures their optimal performance and reliability, making it a critical consideration for engineers and designers across multiple industries. As technology evolves, so too will the designs and materials used for antimagnetic shields, paving the way for even greater advancements in electronics and communications.
在科学和技术的世界中,抗磁屏蔽的概念在电子和电信等各个应用领域发挥着至关重要的作用。抗磁屏蔽旨在保护敏感的电子设备免受磁场干扰的影响。这些屏蔽通常由能够吸收或重新定向磁波的材料制成,以确保设备平稳运行而不受干扰。抗磁屏蔽的重要性不容小觑,特别是在存在强磁场的环境中,如工业机械或医疗设备(如MRI机器)附近。例如,在医院中,某些医疗设备必须在没有外部磁场干扰的情况下正常工作。抗磁屏蔽确保这些设备能够提供准确的读数并执行必要的功能,而不受附近磁源的影响。此外,抗磁屏蔽的使用超越了医疗应用。在消费电子产品中,智能手机、笔记本电脑和游戏机等设备通常会结合这些屏蔽,以提高性能和用户体验。通过最小化磁干扰,制造商可以确保其产品提供更好的音频和视频质量,以及改进的连接性。抗磁屏蔽的设计和有效性取决于多个因素,包括所用材料的类型、屏蔽的厚度以及其旨在阻挡的磁场频率。抗磁屏蔽的常见材料包括mu金属,这是一种以高磁导率著称的镍铁合金,以及其他能够有效衰减磁场的专用复合材料。除了保护能力外,抗磁屏蔽还对电子设备的整体安全性做出了贡献。例如,在航空航天应用中,设备在飞行过程中暴露于不同的磁场中,配备抗磁屏蔽对于防止可能危及安全的故障至关重要。工程师和设计师在为飞机和航天器创建系统时,必须考虑磁场的存在,使得抗磁屏蔽成为这些行业中的重要组成部分。此外,技术的进步不断推动抗磁屏蔽的可能性。研究人员正在探索新材料和创新设计,以增强这些屏蔽的有效性,使其更轻、更薄、更高效。随着我们迈向一个充满日益复杂的电子设备的未来,抗磁屏蔽的作用将变得更加重要。总之,抗磁屏蔽是现代技术中的一个基本元素,提供对各种应用中磁干扰的保护。它保护敏感电子设备的能力确保其最佳性能和可靠性,使其成为各个行业工程师和设计师的关键考虑因素。随着技术的发展,抗磁屏蔽的设计和材料也将不断演变,为电子和通信领域的更大进步铺平道路。