在本篇論文中,提出了一個為了符合IEEE802.16e標準的多重輸入輸出正交分頻多工存取傳輸機並且整合2x2全球互通微波存取的射頻模組的系統單晶片測試平台。此測試平台包含了數位硬體設計,ARM軟體設計,全球互通微波存取的射頻模組以及系統單晶片平台。其硬體設計及ARM軟體設計皆經過完整的驗證以及合成。在本論文中,提供一個完整的系統測試平台適用於全球互通微波存取的通訊系統,藉由整合射頻模組的軟硬體架構而實現無線傳輸系統。 此外,設計者可以憑藉著這個有效率的平台式設計概念解決產品雜度以及產品上市時間 的問題。更進一步來說,系統單晶片平台式設計概念降低了驗證時的不確定性,大大的降低了設計的成本與風險。在此篇論文中,使用圖片檔案做為傳輸的資料,除了可以比較傳統的錯誤率(BER)或是信噪比(SNR)的波形,設計者更可以用不同的角度觀察並驗證系統解調的結果。 本篇論文中提出的測試平台實現了無線通訊系統,由於整合了含有許多多媒體元件的系統單晶片平台,設計者可以即時的從LCD銀幕上驗證全球互通微波存取的通訊系統,此外整合了射頻模組更可以在現實的環境下驗證無線通訊的演算法。
In this thesis, an system-on-chip (SoC) testbed integrated with 2-transmitter-antennas 2- receiver-antennas (2T2R) WiMAX (Worldwide Interoperability Microwave Access) RF (Radio Frequency) module and IP (intellectual property) cores for MIMO-OFDMA (multi-input multi-output orthogonal frequency division multiple access) transceiver of IEEE802.16e standard is presented. The proposed testbed consisted of digital hardware design, ARM software design, WiMAX RF module and SoC platform. The digital hardware and ARM software design have been synthesized and verified completely. In this published, provided a complete system testbed for WiMAX communications, which integrated with WiMAX RF module and modulated by 3-wire control software to achieve wireless transmission. Moreover, designers could use an efficient strategy of platform-based design to deal with product complexity and time-to-market problems. Furthermore, SoC platform-based design minimized the unreliability of verification that extremely reduce design costs and risks. In this proposed testbed, used the figure file as the transmission data. For this reason, designers would verify and observe decoded results in different viewpoints rather than verify only in bit error rate/signal-to-noise ratio (BER/SNR) waveforms. The proposed testbed achieved complete wireless transmission system, and improved the SCO of the MIMO-OFDMA transceiver, due to integrate with SoC platform which contained various multimedia. Therefore, designers could verify the WiMAX communication system directly and observe results in real time by the liquid crystal display (LCD) panel. On the other hand, the proposed testbed integrated with the RF module, hence designers could verify communication algorithms in real environments.