基于 Fpga 实现 Pll 的 Ddfs

IF 0.5 Q4 ENGINEERING, ELECTRICAL & ELECTRONIC Journal of Electrical Systems Pub Date : 2024-05-13 DOI:10.52783/jes.3656
G. Vimala, Dr. F. Vincy Lloyd, K. Prasad
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引用次数: 0

摘要

频率合成器在为各种电子系统提供稳定而精确的频率源方面发挥着至关重要的作用,有助于提高通信和信号处理应用的可靠性和性能。频率合成器是一种电子电路或设备,可产生指定频率的输出信号。它通常用于通信系统、无线电发射机和接收机、雷达系统以及其他各种需要精确稳定频率源的电子应用中。在这项工作中,我们设计并开发了一种频率合成器,其输出频率范围为 20 MHz 至 100 MHz,频率精度可达 10 Hz,开关速度高达 20 µSec,在距载波 10KHz 时相位噪声低至 110 dBc/Hz,可选择偏差的频率调制,可选择步长的频率啁啾,多达 4 个预选频率的 TDM 模式,固定频率、调频和啁啾。该合成器可通过 FTW 进行数字控制,模拟频率范围为 0-400MHz 而不是 20-100 MHz,分辨率为 2 Hz 而不是 10 Hz,相位噪声性能为 120 dBc @ 10kHz,而不是 110 dBc,开关时间为 2µS 而不是 20µS,并成功实现了 4 种操作模式。使用 Xilinx fpga 2v250fg256 实现。在 1536 个片中,使用了 1264 个,占 82%;在 3072 个片中,使用了 536 个,占 17%;在 3072 个 LUT 中,使用了 2238 个,占 72%;在 172 个 IOB 中,使用了 52 个,占 30%;在 16 个 GCLK 中,使用了 3 个,占 18%。与其他 DDFS 实现相比,这项工作确保了具有各种模式的 32 位 FTW 的实现、更好的利用率、低功耗和灵活的编码。
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Fpga Based Implementation of Ddfs for Pll
Frequency synthesizers play a crucial role in providing stable and precise frequency sources for various electronic systems, contributing to the reliability and performance of communication and signal processing applications. A frequency synthesizer is an electronic circuit or device that generates output signals with a specified frequency. It is commonly used in communication systems, radio transmitters and receivers, radar systems, and various other electronic applications where precise and stable frequency sources are required. In this work a frequency Synthesizer is designed and developed for the specifications of output Frequency Range of 20 MHz to 100 MHz, Frequency Accuracy up to 10 Hz, High Switching Speed of 20 µSec, Low Phase Noise of 110 dBc/Hz at 10KHz from carrier, Frequency Modulation with Selectable Deviation, Frequency Chirp with Selectable Step Size, TDM mode up to 4 Pre Selected Frequencies, Fixed Frequency, FM and Chirp. The Synthesizer is digitally controllable with FTW, With the simulations Frequency Range achieved is 0-400MHz against 20 – 100 MHz, Resolution achieved is 2 Hz against 10 Hz, Phase Noise performance is 120 dBc @ 10kHz, against 110 dBc, Switching Time of 2µS against 20µS, and 4 Modes of Operations achieved successfully. Xilinx fpga 2v250fg256 is used for implementation. Number of Slices used are 1264 out of   1536 with  82% , Number of Slice Flip Flops used are 536  out of   3072 with 17% ,Number of 4 input LUTs         used are 2238  out of   3072 with 72%, Number of bonded IOBs used are 52  out of 172  with 30%, Number of GCLKs used are 3  out of  16 with 18%. Compared to other DDFS implementations, this work ensured implementation of 32-bit FTW with various modes, better utilization, low power consumption, flexible coding.
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来源期刊
Journal of Electrical Systems
Journal of Electrical Systems ENGINEERING, ELECTRICAL & ELECTRONIC-
CiteScore
1.10
自引率
25.00%
发文量
0
审稿时长
10 weeks
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