Please use this identifier to cite or link to this item: http://hdl.handle.net/11455/7854
標題: 堆疊型變壓器之效能提升與電路應用
Performance improvement and circuit application of stacked Transformer
作者: 葉士賢
Yeh, Shih-Hsien
關鍵字: transformer;變壓器;stacked;turn ratio;coupling coefficient;variable width;VCO;堆疊型;圈數比;耦合係數;可變寬度;電壓控制震盪器
出版社: 電機工程學系所
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摘要: 
本論文主要分為三個主題。第一個主題為實現圈數比為1:n同時保有高耦合係數之堆疊變壓器。以往堆疊變壓器在圈數比為1:1的結構下,耦合係數可達到0.9,但在非1:1的圈數比下,就無法達到較高的耦合係數,因此,我們使用雙圈堆疊變壓器結構,並利用多層金屬層的佈局方式,設計六個面積不同的堆疊變壓器並分為兩組,兩組變壓器之圈數比分別約為1.59與1.9,最後量測出之耦合係數分別為0.955與0.89。實驗結果顯示出有別於以往的高耦合係數堆疊變壓器,只能在圈數比為1:1的結構下才有高耦合係數,本文之堆疊變壓器在圈數比為1:n的情況下也可得到高耦合係數。在實現圈數比1:n高耦合係數變壓器後,本文將對變壓器的面積效應進行分析,本文設計六個不同面積大小之堆疊變壓器,最後將選出有最佳佈局參數的變壓器。第二個主題為可變寬度堆疊變壓器的實現。利用本實驗室指導教授許恆銘教授以及曾建文學長發表之阻值最佳化方式,套用至對稱型堆疊變壓器以及堆疊型變壓器兩種不同結構的變壓器上,此阻值最佳化方法可降低變壓器的繞線電阻,使其在同樣自感值下,能較固定寬度變壓器有著更高的Q值,改善幅度達10%,進而提升變壓器特徵阻抗,且不會影響到耦合係數。第一、第二個主題所有的堆疊型變壓器皆使用90nm的製程實現,並證明其在高頻時的效能改善。¬第三個主題為利用變壓器之電壓控制振盪器(VCO),本電壓控制振盪器最高操作頻率為2.4GHz,使用變壓器取代電感,與可變電容並聯做為電壓控制振盪器的諧振電路,可降低相位雜訊,最後量測結果為在2.4GHz時的相位雜訊為-87.6dBc/Hz,在2.17GHz時為-117dBc/Hz,可調範圍為200MHz。本電壓控制振盪器以TSMC 0.18μm實現。

This thesis includes three topics, the first topic is to realize a stacked transformer has both different turn ratio and high coupling factor simultaneously. In report literature, the turn ratio of transformer is 1:1 and the coupling factor is 0.9. Generally, the turn ratio changes from 1:1 to 1:n, the resulted transformer can''t reach the high coupling factor. Accordingly, the stacked transformer with 2-turned is proposed in this thesis. In this work, we design six stacked transformers, and then divide them into two groups with different turn ratio: 1.59 and 1.9. Measurement results show that coupling factor of two groups achieves value of 0.955 and 0.89, respectively. According to previous report, the 1:1 stacked transformer could reach higher coupling factor than 1:n stacked transformer. However, the experiment indicates that the 1:n stacked transformers could have perfect coupling factor performance.
Secondly, the investigation on the chip area effect is addressed in these transformers, and then the optimization layout among the six 2-turned stacked transformers. The corresponding topic is to realize a variable widths stacked transformers. When transformers utilize variable widths, it could reduce coil resistance, improve the Q factor about 10% and transformer efficiency compare to a fixed width transformer.
Finally, we proposed a 2.4GHz voltage control oscillator (VCO) using transformer. The proposed VCO replace the inductor by using the transformer in the L-C tank, due to characteristic of reduced phase noise, the VCO was fabricated in a TSMC 0.18μm CMOS technology. Measurement result shows that the -117dBc/Hz of the phase noise of the VCO at 2.17GHz and 200MHz of the tuning range.
URI: http://hdl.handle.net/11455/7854
其他識別: U0005-0408200812063400
Appears in Collections:電機工程學系所

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