多址卫星通信网的广义频率校正技术

E. Chandler
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引用次数: 0

摘要

在每个接地终端内使用的频率校正机制通常将控制发射和调谐的接收器频率,后者是接收终端搜索信号的频率窗口的中心。这种频率校正有时被称为频率跟踪,因为受控的校正是定期更新的,以跟踪这些偏移的贡献源的变化。提出的技术概括了Chandler先前研究过的技术(参见IEEE战术通信会议论文集,第369-379页,1990年4月)。它可以应用于时分多址(TDMA)网络,其中测量的特定突发信号的接收频率用于调整稍后发射或接收的信号的发射频率和调谐的接收器频率。本研究的主要目的是证明前一项研究的技术可以通过连续应用于多种信号类型进行推广,并证明前一项研究的频率校正因子优化程序可以用于推广技术的每一个多分量或信号类型。并举例说明,与基于一种信号类型的单分量技术相比,使用具有多种信号类型的广义技术实现的性能改进。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A generalized frequency correction technique for multiple access satellite communication networks
The frequency correction mechanism used within each earth terminal will typically control both transmit and tuned receiver frequencies, the latter being the center of the frequency window over which a receiving terminal searches for a signal. This frequency correction is sometimes referred to as frequency tracking because the controlled corrections are updated periodically to track changes in the contributing sources of these offsets. The technique presented generalizes one previously studied by Chandler (see IEEE Tactical Communications Conference (TCC-90) Proceedings, p.369-379, April 1990). It can be applied to time division multiple access (TDMA) networks where the measured receive frequencies of specific burst signals are used to adjust both the transmitter frequency and the tuned receiver frequency for signals that are later transmitted or received. The primary objectives of this study are to demonstrate that the technique of the previous study can be generalized by applying it successively to multiple signal types, to demonstrate that the procedure for optimizing the frequency correction factors of the previous study can be used for each of the multiple components or signal types of the generalized technique, and to illustrate by examples the performance improvement achieved by using the generalized technique with multiple signal types as opposed to the single-component technique based on one signal type.<>
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