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研究生: 曾煒崴
論文名稱: 應用於音頻系統之四倍取樣二階三角積分調變器設計與實現
Design and Implementation of a Quad-Sampling Second-Order Delta-Sigma Modulator for Audio Applications
指導教授: 郭建宏
學位類別: 碩士
Master
系所名稱: 電機工程學系
Department of Electrical Engineering
論文出版年: 2017
畢業學年度: 105
語文別: 中文
論文頁數: 95
中文關鍵詞: 時序交錯四倍取樣多位元三角積分調變器類比數位轉換器
英文關鍵詞: Time-Interleaved, Quadruple-Sampling, Multibit Delta-Sigma Modulator, Analog-to-Digital Converter
DOI URL: https://doi.org/10.6345/NTNU202203367
論文種類: 學術論文
相關次數: 點閱:171下載:19
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  • 近年來,因科技的快速發展,及人民生活水準提升。可攜式電子設備在其強調便利且功能完善下,深受社會大眾的廣大的需求。拜現今製成的進步,目前可攜式電子產品發展特色逐漸朝向輕薄短小,晶片系統積體電路的研發成果也功不可沒,其目的於縮小晶片面積、節省功率消耗、降低晶片製作成本、並有效提升整體系統效率等,而在消費者對產品的需求下,屬三角積分調變器的高解析度及對非理想效應性的不敏感等特點,已在儀器、音頻與通信上應用的相當廣泛。

    本篇論文中,提出一個四倍取樣的三角積分調變器。在此架構中,使用四條路徑的取樣電路分別對訊號取樣,藉以提升整體系統的取樣頻率。且在積分時脈當中以創新重疊積分時脈想法來實現此電路。三角積分調變器不僅可以大幅提升類比數位信號的解析度,還達到降低功率消耗的目的。在TSMC 0.18 m 1P6M標準CMOS製程下,供應電壓為1.8 V,系統頻寬為20 kHz,等效的取樣頻率為10 MHz,所得到的訊號雜訊比為71.37 dB,總消耗功率為2.61 mW,整體面積大小為1.45*2.46 mm2。

    In recent years, due to the rapid development of science and technology, and people's living standards. Portable electronic equipment in its emphasis on convenience and functional improvement, by the community's vast needs. Thanks to the progress of today's development, the current characteristics of portable electronic products gradually toward the light and thin, chip system integrated circuit research and development results also contributed to its purpose to reduce the chip area, saving power consumption, reduce wafer production costs, and Effectively enhance the overall system efficiency, and in the consumer demand for products, is a triangular integral modulator high resolution and non-ideal effect of insensitive and other characteristics, has been in the instrument, audio and communication applications rather widely.

    In this paper, we propose a Quadruple Sampling Delta-Sigma Modulator. In this architecture, the four-path is used to sample the signal, thereby increasing the sampling frequency of the overall system. And make the integration clock overlapping overlapped with each other. Delta-Sigma Modulator can not only greatly enhance the analog digital signal resolution, but also to reduce the power consumption of the purpose. In the TSMC 0.18 m 1P6M standard CMOS process, the supply voltage is 1.8 V, the system bandwidth of 20 kHz, the equivalent sampling frequency of 10 MHz, the resulting signal to noise ratio of 71.37 dB, the total power consumption of 2.61 mW , The overall area size is 1.45 * 2.46 mm2.

    摘 要 i ABSTRACT iii 致 謝 v 目 錄 ix 圖 目 錄 xiii 表 目 錄 xvii 第一章 緒論 1 1.1 研究動機與背景 1 1.2 積體電路設計流程 2 1.3 類比數位轉換器之應用與比較 2 1.4 論文大綱與概要 3 第二章 三角積分調變器概論之效能指標與架構比較 5 2.1 前言 5 2.2 效能指標 6 2.2.1 訊號雜訊比 6 2.2.2 訊號雜訊失真比 7 2.2.3 動態範圍 7 2.2.4 無雜波干擾之動態範圍 8 2.2.5 解析度 8 2.3 量化器與量化誤差 9 2.3.1 單位元量化器 9 2.3.2 多位元量化器 10 2.3.3 量化誤差 14 2.4 超取樣 16 2.5 雜訊移頻 18 2.5.1 一階雜訊移頻 19 2.5.2 二階雜訊移頻 23 2.5.3 高階雜訊移頻 26 2.6 章節結論 30 第三章 四倍取樣之三角積分調變器的基本電路元件設計 31 3.1 前言 31 3.2 交換電容式電路 31 3.2.1 離散時間反向積分器 31 3.2.2 離散時間非反向積分器 33 3.3 開關 35 3.3.1 NMOS與PMOS開關 36 3.3.2 傳輸閘開關 37 3.3.3 時脈增強開關電路 39 3.3.4 靴帶式開關 40 3.4 運算放大器 43 3.4.1 運算放大器推導 43 3.5 共模準位回授電路 45 3.6 偏壓電路 45 3.7 多位元量化器 46 3.8 比較器電路 47 3.9 時脈產生器 48 3.10 章節結論 48 第四章 應用於音頻系統之四倍取樣二階三位元三角積分調變器設計與實現 49 4.1 前言 49 4.2 四倍取樣電路之想法與設計 50 4.2.1 四倍取樣電路操作原理 52 4.3 四倍取樣二階三位元三角積分調變器等校線性MATLAB模擬 54 4.3.1 四倍取樣二階三位元三角積分調變器線性架構 54 4.3.2 等效線性架構MATLAB模擬結果 55 4.4 電路非理想效應 57 4.4.1 熱雜訊 57 4.4.2 時脈抖動 60 4.4.3 運算放大器之有限增益 61 4.4.4 運算放大器之閉迴路負載電容 62 4.4.5 運算放大器之有限單增益頻寬、迴轉率與最小電流 64 4.5 重疊積分時脈技術之想法與設計 68 4.5.1 重疊積分時脈設計與操作想法 70 4.5.2 重疊時脈積分器與回授電路實現 73 4.6 四倍取樣二階三位元三角積分調變器設計與電路實現 74 4.6.1 運算放大器之設計 76 4.6.2 三角積分調變器模擬結果 77 4.7 電路佈局與實現 79 4.8 封裝與鎊線效應 80 4.9 晶片量測與實驗結果 81 4.9.1 輸入訊號與終端電路 82 4.9.2 供應電壓源電路的產生─高電位 83 4.9.3 供應電壓源電路的產生─低電位 84 4.9.4 濾波槽電路 84 4.9.5 量測結果 85 4.10 章節結論 89 第五章 總結與未來展望 91 5.1 總結 91 5.2 未來展望 92 參 考 文 獻 93 作 者 簡 歷 95 學 術 成 就 95

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