carrier voltage

简明释义

载波电压

英英释义

例句

1.The modulation technique used affects the amplitude of the carrier voltage.

使用的调制技术会影响载波电压的幅度。

2.In digital communication, the carrier voltage is essential for transmitting data over long distances.

在数字通信中，载波电压对于远距离数据传输至关重要。

3.The radio transmitter modulates the audio signal onto a high-frequency wave using the carrier voltage.

无线电发射器使用载波电压将音频信号调制到高频波上。

4.Engineers monitor the carrier voltage to ensure optimal performance of the communication system.

工程师监测载波电压以确保通信系统的最佳性能。

5.Adjusting the carrier voltage can improve the clarity of the transmitted signal.

调整载波电压可以提高传输信号的清晰度。

作文

In the realm of electrical engineering and telecommunications, the term carrier voltage plays a crucial role in the transmission of information. Essentially, carrier voltage refers to the voltage level that is used to carry a signal over a medium. This concept is fundamental to understanding how data is transmitted in various forms, such as radio waves, fiber optics, and even through wires. To elaborate, a carrier voltage acts as a baseline or a reference point for modulating the actual information being sent. For instance, in amplitude modulation (AM) radio broadcasting, the audio signal (the information) alters the amplitude of the carrier voltage. This alteration allows the audio signal to be transmitted over long distances, as the carrier voltage can travel efficiently through the air. Moreover, the significance of carrier voltage extends beyond just radio frequencies. In digital communications, different modulation techniques utilize carrier voltage to encode data. For example, in quadrature amplitude modulation (QAM), multiple bits of information are sent simultaneously by varying both the amplitude and phase of the carrier voltage. This method enhances the data rate and efficiency of the communication system. Understanding carrier voltage is also essential for troubleshooting and optimizing communication systems. Engineers often monitor the carrier voltage levels to ensure that signals are being transmitted correctly. If the carrier voltage is too low or too high, it can lead to distortion or loss of information, which can significantly affect the quality of communication. In addition, the concept of carrier voltage is not limited to traditional communication methods. With the advent of modern technologies like wireless networks and satellite communications, the importance of carrier voltage has only increased. These technologies rely heavily on stable and precise carrier voltage levels to maintain reliable connections. Furthermore, the study of carrier voltage is intertwined with advancements in materials and components used in electronic devices. As technology progresses, new materials and methods are developed to improve the efficiency and stability of carrier voltage. For instance, the use of superconductors can lead to lower resistance and higher performance in transmission lines, ultimately enhancing the quality of the carrier voltage. In conclusion, the term carrier voltage encapsulates a vital aspect of how signals are transmitted across various media in the field of telecommunications. Its role as a baseline for modulating information makes it indispensable for effective communication. Understanding the intricacies of carrier voltage not only aids engineers in designing better systems but also helps in troubleshooting and ensuring the reliability of communication networks. As technology continues to evolve, the significance of carrier voltage will undoubtedly grow, making it an essential topic for anyone interested in the fields of electronics and telecommunications.

在电气工程和电信领域，短语载波电压起着至关重要的作用，用于信息传输。本质上，载波电压指的是用于通过媒介传递信号的电压水平。这个概念对于理解数据如何以各种形式（例如无线电波、光纤甚至通过电线）传输是基础。进一步来说，载波电压充当基准或参考点，用于调制实际发送的信息。例如，在调幅（AM）广播中，音频信号（信息）改变了载波电压的幅度。这种变化使得音频信号能够远距离传输，因为载波电压能够有效地穿越空气。此外，载波电压的重要性不仅限于无线电频率。在数字通信中，不同的调制技术利用载波电压来编码数据。例如，在正交幅度调制（QAM）中，通过同时改变载波电压的幅度和相位来发送多个比特的信息。这种方法提高了数据传输速率和通信系统的效率。理解载波电压对于故障排除和优化通信系统也至关重要。工程师经常监测载波电压水平，以确保信号正确传输。如果载波电压过低或过高，可能会导致失真或信息丢失，从而显著影响通信质量。此外，载波电压的概念并不限于传统的通信方法。随着现代技术的发展，如无线网络和卫星通信，载波电压的重要性只会增加。这些技术在很大程度上依赖于稳定和精确的载波电压水平，以维持可靠的连接。此外，载波电压的研究与电子设备中使用的材料和组件的进步密切相关。随着技术的进步，开发出新材料和方法以改善载波电压的效率和稳定性。例如，超导体的使用可以降低电阻，提高传输线的性能，从而最终增强载波电压的质量。总之，载波电压这一术语概括了在电信领域信号如何通过各种媒体传输的一个重要方面。它作为调制信息的基准，使其成为有效通信不可或缺的一部分。理解载波电压的复杂性不仅有助于工程师设计更好的系统，还能帮助故障排除和确保通信网络的可靠性。随着技术的不断发展，载波电压的重要性无疑将会增长，使其成为任何对电子和电信领域感兴趣的人必备的知识。