maximum transmission ratio

简明释义

最大传动速比

英英释义

The maximum transmission ratio refers to the highest proportion of input signal that can be effectively transmitted through a system or medium without significant loss or distortion.

最大传输比是指在没有显著损失或失真的情况下,能够有效传输的输入信号与系统或介质之间的最高比例。

例句

1.To improve data transfer rates, the team focused on increasing the maximum transmission ratio 最大传输比 of the devices.

为了提高数据传输速率,团队专注于增加设备的最大传输比 maximum transmission ratio

2.The maximum transmission ratio 最大传输比 is a critical factor in designing high-speed networks.

在设计高速网络时,最大传输比 maximum transmission ratio 是一个关键因素。

3.In order to maximize efficiency, we need to calculate the maximum transmission ratio 最大传输比 of the signal.

为了最大化效率,我们需要计算信号的最大传输比 maximum transmission ratio

4.Understanding the maximum transmission ratio 最大传输比 helps in troubleshooting network issues effectively.

理解最大传输比 maximum transmission ratio 有助于有效地排除网络故障。

5.The engineers determined the maximum transmission ratio 最大传输比 for the new communication system to ensure optimal performance.

工程师们确定了新通信系统的最大传输比 maximum transmission ratio 以确保最佳性能。

作文

In the realm of telecommunications and data transmission, the concept of maximum transmission ratio plays a crucial role in determining the efficiency and effectiveness of communication systems. The maximum transmission ratio refers to the highest possible rate at which data can be transmitted over a given medium without losing integrity or quality. This metric is vital for engineers and technicians who design and maintain communication networks, as it directly impacts the performance of systems that rely on fast and reliable data transfer.To understand the significance of the maximum transmission ratio, we must first consider the various factors that influence data transmission. These include bandwidth, signal-to-noise ratio, and the physical properties of the transmission medium, such as cables or wireless frequencies. For instance, in fiber optic communications, the maximum transmission ratio is often determined by the quality of the glass fibers and the light sources used. Higher quality materials and advanced technologies can lead to higher maximum transmission ratios, enabling faster data speeds and more efficient communication.Moreover, the maximum transmission ratio is not static; it can vary based on environmental conditions and technological advancements. For example, in wireless communications, factors like interference from other signals and atmospheric conditions can affect the maximum transmission ratio. Engineers must continually adapt their systems to optimize this ratio, ensuring that users receive high-quality service even in challenging conditions.In practical applications, the implications of the maximum transmission ratio are profound. For businesses that rely on data-intensive applications, such as cloud computing or video conferencing, a higher maximum transmission ratio can lead to improved productivity and user satisfaction. Conversely, a lower maximum transmission ratio can result in delays, buffering, and overall frustration among users. This is why companies invest heavily in infrastructure upgrades, aiming to enhance their maximum transmission ratio to meet the growing demands of their customers.Furthermore, the maximum transmission ratio is also relevant in the context of network security. As data transmission speeds increase, so too does the potential for cyber threats. A higher maximum transmission ratio may allow for quicker data transfers, but it can also mean that vulnerabilities can be exploited at a faster rate. Therefore, cybersecurity measures must evolve alongside improvements in the maximum transmission ratio to protect sensitive information effectively.In conclusion, the maximum transmission ratio is a fundamental concept in the field of telecommunications that affects everything from network design to user experience. By understanding and optimizing this ratio, engineers can create systems that not only deliver data more quickly but also maintain the integrity and security of that data. As technology continues to advance, the importance of maximizing this ratio will only grow, making it a key focus for future innovations in communication technology.

在电信和数据传输领域,最大传输比率的概念在确定通信系统的效率和有效性方面发挥着至关重要的作用。最大传输比率指的是在不失去完整性或质量的情况下,可以通过给定媒介传输数据的最高速率。这个指标对于设计和维护通信网络的工程师和技术人员至关重要,因为它直接影响依赖于快速和可靠数据传输的系统的性能。要理解最大传输比率的重要性,我们必须首先考虑影响数据传输的各种因素。这些因素包括带宽、信噪比以及传输媒介的物理特性,如电缆或无线频率。例如,在光纤通信中,最大传输比率通常由光纤的质量和所使用的光源决定。更高质量的材料和先进的技术可以导致更高的最大传输比率,从而实现更快的数据速度和更高效的通信。此外,最大传输比率并不是静态的;它可能会根据环境条件和技术进步而变化。例如,在无线通信中,其他信号的干扰和大气条件等因素会影响最大传输比率。工程师们必须不断调整他们的系统以优化这一比率,确保用户即使在困难条件下也能获得高质量的服务。在实际应用中,最大传输比率的影响深远。对于依赖数据密集型应用的企业,如云计算或视频会议,更高的最大传输比率可以提高生产力和用户满意度。相反,较低的最大传输比率可能导致延迟、缓冲和用户的整体挫败感。这就是为什么公司在基础设施升级上投入巨资,以提升其最大传输比率以满足客户日益增长的需求。此外,最大传输比率在网络安全方面也很相关。随着数据传输速度的增加,网络威胁的潜力也随之增加。更高的最大传输比率可能允许更快的数据传输,但这也意味着漏洞可能以更快的速度被利用。因此,网络安全措施必须与最大传输比率的改善一起发展,以有效保护敏感信息。总之,最大传输比率是电信领域的一个基本概念,影响着从网络设计到用户体验的方方面面。通过理解和优化这一比率,工程师可以创建不仅能够更快传输数据,而且能够保持数据完整性和安全性的系统。随着技术的不断进步,最大化这一比率的重要性只会增加,使其成为未来通信技术创新的关键焦点。

相关单词

maximum

maximum详解:怎么读、什么意思、用法

ratio

ratio详解:怎么读、什么意思、用法