synchro transmitter
简明释义
同步发送机
英英释义
例句
1.The technician replaced the faulty synchro transmitter 同步发射器 to restore system functionality.
技术员更换了故障的 同步发射器 以恢复系统功能.
2.The engineer explained how the synchro transmitter 同步发射器 works in the feedback system.
工程师解释了如何在反馈系统中工作 同步发射器.
3.In aviation, a synchro transmitter 同步发射器 is crucial for accurately relaying information from the cockpit instruments.
在航空中,同步发射器 对于准确传递来自驾驶舱仪表的信息至关重要.
4.During the test, the synchro transmitter 同步发射器 provided real-time data for analysis.
在测试过程中,同步发射器 提供了实时数据以供分析.
5.The synchro transmitter 同步发射器 is often used in military applications to ensure precise control of equipment.
在军事应用中,同步发射器 常用于确保设备的精确控制.
作文
In modern engineering and technology, accurate positioning and control are essential for various applications, ranging from aerospace to robotics. One of the key components that facilitate this precision is the synchro transmitter. A synchro transmitter is an electromechanical device that converts angular position into an electrical signal, allowing for the accurate transmission of information about rotational movement. This technology has been pivotal in numerous fields, including navigation systems, industrial automation, and military applications.The primary function of a synchro transmitter is to provide feedback on the position of a rotating object. It operates based on the principles of electromagnetic induction, where the rotation of a rotor generates an electrical output proportional to its angle. This output can then be transmitted to other devices or systems, enabling them to adjust their operations accordingly. For instance, in aircraft, synchro transmitters are used to relay the position of control surfaces to the cockpit instruments, ensuring that pilots have accurate information for safe navigation.One of the significant advantages of using synchro transmitters is their ability to maintain high accuracy over long distances. Unlike conventional electrical signals that may degrade over distance, the signals produced by synchro transmitters remain stable and reliable. This makes them ideal for applications where precision is critical, such as in missile guidance systems or robotic arms in manufacturing.Moreover, synchro transmitters are designed to operate in harsh environments. They can withstand extreme temperatures, vibrations, and electromagnetic interference, which is crucial for their use in aerospace and military settings. The durability and reliability of these devices ensure that they can function effectively even under challenging conditions.In addition to their robustness, synchro transmitters are relatively easy to integrate into existing systems. Their standardized design allows engineers to incorporate them into various applications without extensive modifications. This versatility has led to their widespread adoption across different industries, making them a staple in modern technology.However, despite their many advantages, synchro transmitters are not without limitations. One of the challenges associated with these devices is their complexity in terms of installation and calibration. Ensuring that the synchro transmitters are accurately aligned and calibrated is essential for optimal performance. Any misalignment can lead to erroneous readings and potentially compromise the safety and efficiency of the system in which they are used.In conclusion, the synchro transmitter plays a vital role in the realm of precision engineering and control systems. Its ability to convert angular position into electrical signals enables accurate feedback and control in various applications. While there are challenges associated with their installation and calibration, the benefits of using synchro transmitters far outweigh these drawbacks. As technology continues to advance, it is likely that we will see even more innovative applications for synchro transmitters, further solidifying their importance in modern engineering. Understanding the functionality and significance of the synchro transmitter is essential for anyone involved in fields that require precise control and positioning.
在现代工程和技术中,准确的定位和控制对于各种应用至关重要,从航空航天到机器人技术。其中一个关键组件是同步发射器。同步发射器是一种机电设备,将角度位置转换为电信号,从而允许关于旋转运动的信息的准确传输。这项技术在众多领域中发挥了重要作用,包括导航系统、工业自动化和军事应用。同步发射器的主要功能是提供有关旋转物体位置的反馈。它基于电磁感应原理工作,转子的旋转产生与其角度成比例的电输出。然后可以将该输出传输到其他设备或系统,使其能够相应地调整操作。例如,在飞机中,同步发射器用于将控制面的位置传递给驾驶舱仪表,确保飞行员拥有安全导航所需的准确信息。使用同步发射器的一个显著优点是它们能够在长距离内保持高精度。与传统电信号可能在距离上衰减不同,同步发射器产生的信号保持稳定可靠。这使得它们非常适合在精度至关重要的应用中使用,例如导弹制导系统或制造中的机器人手臂。此外,同步发射器设计用于在恶劣环境中运行。它们能够承受极端温度、振动和电磁干扰,这对于它们在航空航天和军事环境中的使用至关重要。这些设备的耐用性和可靠性确保它们即使在挑战条件下也能有效工作。除了它们的坚固性外,同步发射器相对容易集成到现有系统中。它们的标准化设计使工程师能够将其纳入各种应用,而无需进行大量修改。这种多功能性导致它们在不同产业中的广泛采用,使其成为现代技术的基石。然而,尽管有许多优点,同步发射器并非没有局限性。与这些设备相关的挑战之一是安装和校准的复杂性。确保同步发射器正确对齐和校准对于最佳性能至关重要。任何错位都可能导致错误读数,并可能危及其使用系统的安全性和效率。总之,同步发射器在精密工程和控制系统领域中发挥着至关重要的作用。它将角度位置转换为电信号的能力使得在各种应用中实现准确反馈和控制成为可能。尽管与其安装和校准相关的挑战,但使用同步发射器的好处远远超过这些缺点。随着技术的不断进步,预计我们会看到同步发射器的更多创新应用,进一步巩固其在现代工程中的重要性。理解同步发射器的功能和意义对于任何参与需要精确控制和定位的领域的人来说都是至关重要的。
相关单词