差動橋式T線圈於微型化被動電路之應用

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姓名

詹忠憲(Chung-Hsien Chan) 查詢紙本館藏

畢業系所

電機工程學系

論文名稱

差動橋式T線圈於微型化被動電路之應用
(Differential Bridged-T Coil for Miniature Passive Circuit Design)

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摘要(中)

本論文以被動電路微小化與積體化為目標，提出以差動及雙頻差動橋式T線圈做為基本組件，應用於微小化寬頻及雙寬頻鼠競耦合器、共模態帶止濾波器器與吸收式共模態帶止濾波器之設計。於電路實現上，氮化鎵(GaN)、砷化鎵(GaAs)與積體被動元件(IPD)等具有高整合度之製程，有效達成電路微小化的設計目標。
論文首先提出新式微小化寬頻及雙寬頻鼠競耦合器，並以IPD製程實現。寬頻鼠競耦合器於中心頻率2.45 GHz下之電氣尺寸僅為0.0187〖 λ〗_0×0.0285〖 λ〗_0，而雙寬頻鼠競耦合器中心頻率為2.45 GHz及5.5 GHz，於兩中心頻率下之尺寸分別為0.0217〖 λ〗_0×0.0321〖 λ〗_0 及0.0488〖 λ〗_0×0.0721〖 λ〗_0，均較既有設計大幅縮小。
其次，提出數種新式共模態帶止濾波器設計皆以差動橋式T線圈為基本組件，阻抗皆為100 Ω，其中以積體被動元件製程實現的寬頻共模帶止濾波器，其群延遲為140 ps，差模頻寬為0至10 GHz，共模的操作頻率為3.57 GHz至9.18 GHz，止帶的抑制效果皆大於20 dB，在止帶頻率下的尺寸為0.03969 x 0.081585 λ_0^2。
接續以積體被動元件製程實現吸收式共模帶止濾波器，差模阻抗為100 Ω，群延遲為160 ps，中心頻率為2.4 GHz，中心頻率下的尺寸僅為0.01488 λ0 x 0.03176 λ0，止帶為2.32 至 2.63 GHz，抑制效果大於10 dB。
上述應用電路證實差動及雙頻差動橋式T線圈架構的確能對被動電路面積縮減十分有效，實現上亦十分簡便。

摘要(英)

Abstract
In this thesis, very compact integrated passive circuits with high performance are presented. Today, the wireless communication system for multi-band and wide-band is increasing. Therefore, more and more multi-band and wide-band circuit of the basic components or subsystem design concept was presented in the recent year. And the electromagnetic interference (EMI) or RF interference (RFI) issues are important, too. Thus, using a common mode filter to alleviate electromagnetic interference (EMI) or RF interference (RFI) becomes a crucial technique for optimizing the performance of high-speed differential systems. However, the major bottleneck of the size reduction of active and passive microwave circuits is the requirement of multiple transmission lines with given electrical length. The traditional bridge-T coil will be equivalent to the transmission line, but only for single-frequency applications. In this work, the differential and dual-band differential bridged-T coils are used to replace the conventional bridged-T coil, can be used in dual-band microwave passive or more balance circuit design, and while achieving the purpose of minimization. The differential and dual-band differential bridged-T coils can be implemented using inductor and metal-insulator-metal (MIM) capacitor in GaN semiconductor and GaAs semiconductor IC process or Integrated Passive Device (IPD) process to achieve very compact size. It is applied to the design of Miniature wide band and dual wide-band rat-race couplers, common mode band-stop filters (CMF), and an absorptive common mode band-stop filter (ACMF).
First of all, the proposed Miniature wide band and dual wide-band rat-race couplers are fabricated in IPD process. The center frequency of the wide band rat-race coupler is at 2.45 GHz. The circuit size of Miniature wide band rat-race coupler is 0.0187〖 λ〗_0×0.0285〖 λ〗_0 at 2.45 GHz. And the center frequency of the dual wide-band rat-race coupler is at 2.45 GHz and 5.5 GHz. The circuit size of Miniature dual wide-band rat-race coupler is 0.0217〖 λ〗_0×0.0321〖 λ〗_0 at 2.45 GHz, 0.0488〖 λ〗_0×0.0721〖 λ〗_0 at 5.5 GHz.
Second, the proposed Miniature CMFs were fabricated in three different process. Two CMFs and two wide band CMFs were fabricated in IPD process, then the other two wide band CMFs were fabricated in GaN semiconductor and GaAs semiconductor IC process. All the circuits of above were designed with differential bridge-T coil, and their characteristic impedance were 100 Ω. At first, a wide band CMF fabricated in IPD process whose group delay was 140 ps. The operating frequency of wide band CMF was and 3.57 GHz to 9.18 GHz. The circuit size was 0.03969 x 0.081585 λ_0^2 at the center of the operating frequency. And a wide band CMFs fabricated in GaAs semiconductor IC process whose group delay was 160 ps. The operating frequency was 2.35 GHz to 10 GHz. The circuit size was 0.033 x 0.0452 λ_0^2 at the center of the operating frequency.
Finally, the proposed Miniature ACMF was fabricated in IPD process. The characteristic impedance was 100 Ω, and the group delay was 160 ps. The center frequency of Miniature ACMF was 2.4 GHz. The circuit size of Miniature ACMF is 0.01488 λ0 x 0.03176 λ0 at 2.4 GHz. Compared with current designs, the above circuits are smaller in size. The effectiveness of differential and dual band differential bridged-T coils on the design of miniaturized on-chip passive microwave circuit is also validated through proposed design examples.

關鍵字(中)

★ 差動
★ 橋式T線圈
★ 微型化
★ 被動電路

關鍵字(英)

論文目次

目錄

論文摘要 I
ABSTRACT II
目錄 IV
圖形列表 VII
表格列表 XXVIII
第一章緒論 1
1.1 研究動機 1
1.2 文獻回顧 3
1.3 章節介紹 5
第二章差動橋式T線圈等效傳輸線原理與設計 6
2.1差動橋式T線圈 6
2.1.1傳統橋式T線圈 6
2.1.2 差動橋式T線圈電路架構與原理 11
2.1.3 積體被動元件製程 14
2.1.4 實作與量測驗證 16
2.2雙頻差動橋式T線圈 23
2.2.1 雙頻橋式T線圈電路架構與原理 24
2.2.2 雙頻差動橋式T線圈電路架構與原理 32
2.2.3 實作與量測驗證 35
2.3 小結 45
第三章微型化寬頻及雙寬頻鼠競耦合器 46
3.1 電路架構及原理 46
3.1.1微型化寬頻鼠競耦合器 46
3.1.2微型化雙寬頻鼠競耦合器 49
3.2實作與量測驗證 51
3.2.1微型化寬頻鼠競耦合器 51
3.2.2 微型化雙寬頻鼠競耦合器 85
3.3 小結 108
3.3.1微型化寬頻鼠競耦合器特性比較 108
3.3.2 微型化雙寬頻鼠競耦合器 109
第四章微小化共模帶止濾波器 111
4.1 電路架構及原理 111
4.2 微小化窄頻共模帶止濾波器 113
4.2.1設計原理 113
4.2.2 實作與量測驗證 117
4.2.3 共模帶止濾波器改良 128
4.3 微小化寬頻共模帶止濾波器 138
4.3.1設計原理 138
4.3.2實作及量測驗證 142
4.3.3 寬頻共模帶止濾波器改良I 149
4.3.4寬頻共模帶止濾波器設計改良II 160
4.4 小結 183
第五章微型化吸收式共模帶止濾波器 186
5.1 電路架構及原理 186
5.2實作與量測驗證 197
5.3 小結 221
第六章結論 222
參考文獻 225

參考文獻

參考文獻
[1] I. Piekarz, J. Sorocki, K. Wincza, and S. Gruszczynski, “Rat-race directional couplers operating in differential mode,” IEEE Radio and Wireless Symposium, pp. 184–186, March 2017.
[2] M. Caillet, M. Clénet, A. Sharaiha, and Y. M. M. Antar, “A compact wide-band rat-race hybrid using microstrip lines,” IEEE Microw. Wireless Compon. Lett., vol. 19, no. 4, pp. 191–193, April 2009.
[3] C. –H. Tseng, C. –L. Chang, “A rigorious design methodology for compact plannar branch-line and rat-race coupler with asymmetrical T-structure,” IEEE Trans. Microw. Theory Techn., vol. 60, no. 7, pp. 2085–2092, July. 2012.
[4] H. J. Wei, C. Meng, S. W. Yu and C. H. Chang, "A Chebyshev-Response Step-Impedance Phase-Inverter Rat-Race Coupler Directly on Lossy Silicon Substrate and Its Gilbert Mixer Application," IEEE Trans. Microw. Theory Techn., vol. 59, no. 4, pp. 882-893, April 2011.
[5] L. –C. Hsu, Y. –L. Wu, J. –Y. Zou, H. –N. Chu, and T. –G. Ma, “Periodic synthesized transmission lines with 2-D routing capability and its applications to power divider and couplers using integrated passive device process,” IEEE Trans. Microw. Theory Techn., vol. 64, no. 2, pp. 493–501, February. 2016.
[6] Y. –C. Tseng and T. –G. Ma, "On-chip miniaturised wideband rat-race coupler using integrated passive device technology," in IET Microwaves, Antennas & Propagation, vol. 8, no. 12, pp. 959-964, Sept. 16 2014.
[7] K. K. M. Cheng and F. –L. Wong, "A novel rat race coupler design for dual-band applications," IEEE Microwave and Wireless Components Letters, vol. 15, no. 8, pp. 521-523, Aug. 2005.
[8] K. S. Chin, K. M. Lin, Y. H. Wei, T. H. Tseng and Y. J. Yang, "Compact Dual-Band Branch-Line and Rat-Race Couplers With Stepped-Impedance-Stub Lines," IEEE Transactions on Microwave Theory and Techniques, vol. 58, no. 5, pp. 1213-1221, May 2010.
[9] P. L. Chi and T. Y. Chen, "Dual-Band Ring Coupler Based on the Composite Right/Left-Handed Folded Substrate-Integrated Waveguide," IEEE Microwave and Wireless Components Letters, vol. 24, no. 5, pp. 330-332, May 2014.
[10] E. Corrales, A. Baldomero and P. de Paco, "A Dual-Band 180-Degree Hybrid Coupler Based on Coupled-Line Sections," IEEE Microwave and Wireless Components Letters, vol. 25, no. 4, pp. 211-213, April 2015.
[11] C. H. Tseng, C. H. Mou, C. C. Lin and C. H. Chao, "Design of Microwave Dual-Band Rat-Race Couplers in Printed-Circuit Board and GIPD Technologies," IEEE Transactions on Components, Packaging and Manufacturing Technology, vol. 6, no. 2, pp. 262-271, Feb. 2016.
[12] L. Fan, C. –H. Ho, S. Kanamaluru and K. Chang, "Wide-band reduced-size uniplanar magic-T, hybrid-ring, and de Ronde′s CPW-slot couplers," IEEE Transactions on Microwave Theory and Techniques, vol. 43, no. 12, pp. 2749-2758, Dec 1995.
[13] H. R. Zhu and J. F. Mao, "An Ultra-Wideband Common-Mode Suppression Filter Based on S-DBCSRR for High-Speed Differential Signals," IEEE Microwave and Wireless Components Letters, vol. 25, no. 4, pp. 226-228, April 2015.
[14] J. Martel, A. Fernández-Prieto, A. Lujambio, F. Medina, F. Mesa and R. R. Boix, "Differential Lines for Common-Mode Suppression Based in Hybrid Microstrip/CPW Technology," IEEE Microwave and Wireless Components Letters, vol. 27, no. 1, pp. 13-15, Jan. 2017.
[15] C. Y. Hsiao, Y. C. Huang and T. L. Wu, "An Ultra-Compact Common-Mode Bandstop Filter With Modified-T Circuits in Integrated Passive Device (IPD) Process," IEEE Transactions on Microwave Theory and Techniques, vol. 63, no. 11, pp. 3624-3631, Nov. 2015.
[16] M. Kim, "Periodically Corrugated Reference Planes for Common-Mode Noise Suppression in High-Speed Differential Signals," IEEE Transactions on Electromagnetic Compatibility, vol. 58, no. 2, pp. 619-622, April 2016.
[17] P. Vélez, J. Bonache and F. Martín, "Differential Microstrip Lines With Common-Mode Suppression Based on Electromagnetic Band-Gaps (EBGs)," IEEE Antennas and Wireless Propagation Letters, vol. 14, pp. 40-43, 2015.
[18] Z. Zeng, Y. Yao and Y. Zhuang, "A Wideband Common-Mode Suppression Filter With Compact-Defected Ground Structure Pattern," IEEE Transactions on Electromagnetic Compatibility, vol. 57, no. 5, pp. 1277-1280, Oct. 2015.
[19] I. I. A. Ieong, C. H. Tsai and T. L. Wu, "An ultra compact common-mode filter for RF Interference control in 3G wireless communication systems," 2010 IEEE International Symposium on Electromagnetic Compatibility, Fort Lauderdale, FL, 2010, pp. 776-779.
[20] T. L. Wu, F. Buesink and F. Canavero, "Overview of Signal Integrity and EMC Design Technologies on PCB: Fundamentals and Latest Progress," IEEE Transactions on Electromagnetic Compatibility, vol. 55, no. 4, pp. 624-638, Aug. 2013.
[21] C. Y. Hsiao, C. H. Cheng and T. L. Wu, "A New Broadband Common-Mode Noise Absorption Circuit for High-Speed Differential Digital Systems," IEEE Transactions on Microwave Theory and Techniques, vol. 63, no. 6, pp. 1894-1901, June 2015.
[22] P. J. Li, C. H. Cheng, Y. C. Tseng and T. L. Wu, "Novel absorptive design of common-mode filter at desired frequency band," 2016 IEEE 20th Workshop on Signal and Power Integrity (SPI), Turin, 2016, pp. 1-4.
[23] P. J. Li, Y. C. Tseng, C. H. Cheng and T. L. Wu, "A Novel Absorptive Common-Mode Filter for Cable Radiation Reduction," IEEE Transactions on Components, Packaging and Manufacturing Technology, vol. 7, no. 4, pp. 511-518, April 2017.
[24] D.M. Pozar, Microwave Engineering, 3rded., Jhon Wiley & Sons, Inc., 2005.
[25] 方偉廷, "基於橋式T線圈之微型化切換式波束成型模組," 博士論文國立中
央大學, 2017.
[26] E. M. Chase and W. Kennan, “A power distributed amplifier using constant-R networks,” in IEEE MTT-S Int. Microw. Symp. Dig., pp. 811–815, Jun. 1986.
[27] 李駿華, "無頻寬減損之微小化功率分配器與巴特勒矩陣," 碩士論文國立中央大學,2011.
[28] 曾子豪, "無頻寬減損之微小化集總元件被動電路," 碩士論文國立中央大學, 2012.
[29] W. R. Eisenstadt and Y. Eo, "S-parameter-based IC interconnect transmission line characterization," IEEE Transactions on Components, Hybrids, and Manufacturing Technology, vol. 15, no. 4, pp. 483-490, Aug 1992.

指導教授

林祐生(Yo-Shen Lin)

審核日期

2018-1-29

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