本論文針對Warp Board 與 AD9361 天線模組的系統整合，由於原有硬體電路與天線模組受限於2.4Ghz 與5Ghz，為了能夠實現在不同頻段上面進行通訊，因此我們選用了AD9361這塊天線模組，它能通訊的頻段從70Mhz到6Ghz都可以自行調整，且相當便利，可以自行修改的參數也相當多，讓使用者可以客製化來設計自行的系統整合，而原有的硬體電路設計是基於802.11 OFDM系統，在電路設計上並沒有太大的變化，我們只需要針對AD9361 RF模組上的特性，然後對我們的802.11 OFDM系統中的Transmit & Receive & DCF 這三塊硬體電路做整合，計算出AD9361 RF天線模組的線路delay與外部CLK要如何與內部IP的系統做同步的調整，並且如何透過SPI 控制AD9361的參數轉換與各項RF參數，如此我們就可以將原有的天線模組整個調換成AD9361 RF，並且實現在各個頻段上面傳送802.11 frame，本論文以系統整合為目標，採用Xilinx tool 設計我們的電路，包含硬體設計部分採用Xilinx XPS ，在軟件部分採用Xilinx SDK，
，最後會實現於FPGA電路板上呈現。

The thesis proposes the Warp Board and AD9361 RF antenna with module Integration for system, since the original hardware circuit and antenna module is limited to 2.4GHz and 5GHz, therefore we chose this AD9361 antenna module, which can communicate with the band from 70Mhz to 6Ghz are self-adjusting , greatly convenient, and can modify a lot of parameters, so that users can design their own custom system to integrate, and the original hardware circuit design is based on 802.11 OFDM system, which has not changed much, we only need for the characteristics of AD9361 RF module, afterwards these three hardware circuits: Transmit & Receive & DCF are integrated on our 802.11 OFDM system ,Moreover calculate the delay of circuit for AD9361 RF antenna module and external CLK that how to synchronize for internal IP systems , as well as how to control the parameters through SPI to transform with the AD9361 RF parameters, so that we can let original antenna module replace by the entirely AD9361 RF module, and completely transfer 802.11 frame on each frequency band. The study implement system integration as the goal, and design circuit with Xilinx tool, comprising part of the hardware design using Xilinx XPS and the software part adopt Xilinx SDK. Eventually, it will be implemented a FPGA board.

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