基于FPGA的高资源DRFM系统设计

M. Aseeri, A. A. Alasows, Muhammad R. Ahmad
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引用次数: 2

摘要

先进的数字射频存储器是电子干扰机的关键部分。数字射频存储器(DRFM)框架旨在以特定的重复和传输能力将射频(RF)信息信号数字化,以通过无线电信号进行通信,并在一系列程序后再现该射频信号。DRFM的设备设计基于FPGA策略。由于对实用模块的合理划分,一般的兵力利用率较低。然而,通过串行条纹接口(SFI)进行操作,可以有效地完成FPGA项目的web重新设计和主动堆叠。这个边缘已经连接到雷达误导干扰机框架,这是真正合法的。DRFM具有存储无线电和微波信号的能力。该设计建立在先进雷达系统的关键部分上。因此,DRFM可以处理该方法,该方法与无线电再发源的电子对抗相连接。本文首先介绍了基于FPGA框架的DRFM的顺序、制作和操作。根据组态策略,讨论了考虑现场可编程门集群的DRFM系统设计。我们为显示方案选择的示例速率为1ghz,样本精度为12位。我们提供了四个ADC (250 MHz)并行模式来实现1 GSPS。在单信道中,我们利用正交计算机化技术进行合理的定位,同时考虑到保护包络信号数据的目的。现场可编程网关连接到该框架以支持控制和数据存储。其次,利用VHDL (Very High Speed Hardware Description Language)语言,结合FPGA了解DRFM电路的配置,并进行容量再现和接续检查。利用低压差分信号(LVDS)芯片的大部分作为框架的一部分,大大降低了DRFM的力,提高了框架的安全性。最后,本文对配置中使用的计算机信号准备计算进行了仿真;结果证明了该方法的可行性。因此,考虑FPGA的DRFM框架具有最高的执行列表和优势。
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Design of DRFM system based on FPGA with high resources
Advanced digital RF memory is a key segment of the electronic jammer. A Digital Radio Frequency Memory (DRFM) framework is intended to digitize a Radio Frequency (RF) information signal at a particular recurrence and transmission capacity to communicate by radio signals and reproduce that RF signal after a progression of procedure. The equipment design for DRFM is based on the FPGA strategies. Because of a sensible division of the practical module, the general force utilization is low. However, web redesigning and active stacking of the FPGA project can be effectively accomplished through a serial fringe interface (SFI) for operations. This edge has been connected to the radar misleading jammer framework, which is genuinely legitimate. The DRFM has the capacity store radio and the microwave signal. The design is built on a critical segment of the advanced radar system. Thus, the DRFM can deal with the method, which is connected to the electronic countermeasure for the radio recurrent source. Firstly, this paper presents the order, making, and operation of DRFM based on FPGA framework. As indicated by configuration strategy, this paper discussed the DRFM system design taking into account the field programmable door cluster. The example rate, we selected for the displayed plan is 1 GHz and the specimen accuracy is 12 bits. We provided four ADC (250 MHz) parallel patterns to achieve 1 GSPS. In the single channel, we utilized the orthogonal computerized technology for the reasonable location, keeping in mind the goal to protect the data of the envelope signal. The field programmable gateway is connected to this framework to support control and data storage. Secondly, the Very High Speed Hardware Description Language (VHDL) is utilized to understand the configuration of DRFM circuit in light of the FPGA and the capacity reenactment and the succession examination. Large portions of the Low-Voltage Differential Signaling (LVDS) chip are utilized as a part of the framework, so the force of the DRFM is lessened significantly and the security of the framework is improved. Finally, in this paper, the computerized signal-preparing calculation that used in the configuration has carried on the reenactment; the outcome has demonstrated the outline feasibility. Thus, the DRFM framework taking into account FPGA has the highest execution list and the predominance.
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