應用於線性量測系統之基於鎖相迴路架構之訊號修正法開發

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研究生：	鄧鈞 Teng, Chun
論文名稱：	應用於線性量測系統之基於鎖相迴路架構之訊號修正法開發 Development of Phase-Locked-Loop Based Signal Correction Method Applied on Linear Positioning System
指導教授：	張禎元 Chang, Jen-Yuan
口試委員:	宋震國 Sung, Cheng-Kuo 曹哲之 Tsao, Che-Chih
學位類別：	碩士 Master
系所名稱：	工學院 - 動力機械工程學系 Department of Power Mechanical Engineering
論文出版年：	2017
畢業學年度：	105
語文別：	中文
論文頁數：	91
中文關鍵詞：	線性位置量測系統、訊號處理
外文關鍵詞：	linear measurement system, signal processing
相關次數：	點閱：2 下載：0
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查詢本校圖書館目錄查詢臺灣博碩士論文知識加值系統勘誤回報

隨著工具機產業對於高精度、低成本的產品需求迅速提升，國內
在開發具提升整機精度之低成本、高值化位置回授系統之技術仍處落
後地位。硬體製造面而言，國內已有相當水準開發出穩定場強、公差
極小的磁性量測系統，與國外商品比較，硬體規格已相當；惟後端處
理的部分，無法提升位置解析度、精度及因應可能較差的量測環境的
能力，無法大幅提升本國與國外產品的競爭力。
本研究目標於開發應用於磁性量測系統之訊號處理系統，針對應
用於位置細分割前的正交訊號修正，提出鎖相迴路為基本架構之數位
濾波方法，有效提升系統抗干擾性。為避免直接以即時系統進行訊號
處理開發可能無法分離運算中可能帶來無法辨識之誤差，前端研究先
以Simulink 環境進行訊號處理系統之暫態分析模擬，以離線處理的
方式調整架構內可設定之參數，並觀察各參數對於整體架構之動態變
化。得到各參數之設定關係後，並將此開發系統架設於高階語言
LabVIEW 環境之FPGA 晶片並進行性能、即時性驗證，並與各廠牌
之磁性量測系統規格比較。

As industrial automation becomes widely used nowadays, prices of machine tools are natural to be decreasing for higher competitiveness. That is, for one thing, demands of higher accuracy and lower cost parts as feedback system in a machine are rising rapidly in following years. Without some key techniques, domestic suppliers still fall behind in offering such kind of products that are able to improve precision of feedback systems and additionally help suppliers stretch profit margins. In respect of magnetic encoder manufacturing, it has been proved that some domestic encoder-supplier has an ability to minimize the pole pitch deviation and unbalance magnetic field like other foreign manufacturers. Even though the qualities of locally made encoders are almost identical to those products other brands offer, it still exists a huge difference between the local made and the other brand-trusted measuring system in performance of resolution, measuring accuracy and tolerance so that it is limited to let market strategies go further with extended industrial applications.
This research focused on the development of real-time signal correcting applied on quadrature signals system such as magnetic and optical encoders. Considering the imperfection of signals in quadrature, amplitude deviation, phase shifts and random noises, which could cause inaccurate interpolation on fine, scale positioning, this approach of signal correction based on phase-lock-loop are designed to extract phases of a pair of input signals and regenerate the corresponding signals to alleviate uncertainty of position analyzing.
In a first place, regardless of real-time calculation error, a prototype of signal correction was constructed in Simulink to simulate the transient response of parameters modulation with real phase A and B data sampled from oscilloscope. In this process, optimal parameter self-adjustment mechanism was built to make a trade-off between time lag and noise reduction. Next, the verified construction was implemented in LabVIEW FPGA to test the performance of real-time compensation, system repeatability and noises reduction with different sensors applied. Experimental data indicated that the aim of increasing resolution and keeping nice repeatability as other brands’ products was reached through the proposed method.

摘要    I
ABSTRACT    II
誌謝    IV
目錄    V
圖目錄    VII
表目錄    X
第一章    緒論    1
1    前言    1
2    技術背景及產品現況    4
2.1    磁性編碼器現況    4
2.2    磁性編碼器量測原理    7
2.3    細分割(Interpolation)原理    12
3    文獻回顧    16
3.1    離線補償的訊號修正方法    16
3.2    在線補償的訊號修正方法    18
3.3    文獻結論    33
4    研究動機與目的    34
第二章    鎖相迴路(PLL)模擬架構與分析    35
1    前言    35
2    PLL演算架構    35
3    模擬實驗－電壓振盪器之敏感度調整    37
3.1    實驗目的    37
3.2    實驗設計    37
3.3    定頻訊號下調整KVCO－以100 Hz為例    38
3.4    模擬變頻訊號驗證    42
4    本章結論    42
第三章    PLL離線處理測試與分析    43
1    實驗目的    43
2    實驗設備    44
3    訊號頻率與前段濾波分析    47
3.1    實驗流程    47
3.2    實驗設計    48
3.3    實驗內容    51
4    頻率偵測機制建立與分析    58
4.1    機制建立    58
4.2    頻率偵測結果    60
5    本章結論    61
第四章    在線補償建立與性能驗證    63
1    在線補償架構建立    63
1.1    實驗設備    63
1.2    系統架構    66
2    各掃描速度下即時處理效能驗證    67
2.1    AMR模組搭配儀表放大器之輸出訊號及修正訊號比較    67
2.2    市售讀頭之輸出訊號及修正後訊號比較    72
3    抗干擾能力驗證    75
3.1    AMR模組經儀表放大器輸出及PLL濾波後差異比較    77
3.2    市售驅動器訊號與PLL濾波訊號比較    77
4    重現精度測試    78
4.1    量測氣隙0.1 mm 重現精度    80
4.2    量測氣隙0.2 mm 重現精度    80
4.3    量測氣隙0.3 mm 重現精度    81
4.4    量測氣隙0.4 mm 重現精度    81
4.5    量測氣隙0.5 mm 重現精度    82
4.6    重現精度結果整理    82
5    本章結論    84
第五章    結論及未來工作    85
1    結論    85
2    未來工作    88
參考文獻    89


                                

[1] G. Research, “2016 World Machine Tools Survey,” Gardner Business Media, 2016. [線上].
[2] 拓樸產業研究所, “雙劍策略營造全球智慧機械之都，2020年台灣工具機產業產值挑戰70億美元,” 16 02 2016. [線上]. Available: http://press.trendforce.com.tw/press/20160216-3128.html.
[3] 馳達科技, “齒輪式磁性編碼器,” [線上]. Available: http://www.guboa.com.tw/products-01.html.
[4] 海德漢, “ERM 2280 系列,” [線上]. Available: http://www.heidenhain.com/en_US/products/angle-encoders/modular-magnetic-encoders/erm-2200-series/.
[5] 東洋磁氣工業株式會社, “旋轉式增量編碼器示意,” [線上]. Available: http://www.magnix.com/product/magne-sheet.htm.
[6] RLS, “Magnetic Encoders Product,” [線上]. Available: http://www.rls.si/products/rotary-magnetic-encoders/incremental-encoders/modular/ring.
[7] KOHDEN, “Principle of a parallel type AMR sensor detecting,” [線上]. Available: http://hkd.co.jp/english/amr_tec_sudare/.
[8] 林振湋, “巨磁阻感測元件的製作與量測,” 於國立清華大學動力機械工程研究所碩士論文, 2009.
[9] N. C. Cheung, "An Innovative Method to Increase the Resolution of Optical Encoders in Motion Servo Systems," in IEEE, Hong Kong, 1999.
[10] H. T. Le, H. V. Hoang and J. W. Jeon, "Efficient Method for Correction and Interpolation," in IEEE, Daejeon, Korea, 2008.
[11] L. M. Heydemann, "Determination and Correction of Quadrature Fringe Measurement Errors in Interferometers," Applied Optics, vol. No. 19, pp. 3382-3384, October 1989.
[12] S. Balemi, "Automatic Calibration of Sinusoidal Encoder Signals," Proceedings of IFAC World Congress, 2005.
[13] H. V. Hoang and J. W. Jeong, "Signal Compensation and Extraction of High Resolution Position for Sinusoidal Magnetic Encoders," in Proc. ICCAS, Seoul, Korea, 2007.
[14] T. Emura and L. Wang, "A High-Resolution Interpolator for Incremental Encoders Based on the Quadrature PLL Method," IEEE Trans. on IE, vol. No. 1, pp. 84-90, February 2000.
[15] H. V. Hoang, H. T. Le and J. W. Jeon, "A New Approach based-on Advanced Adaptive Digital PLL for Improving the Resolution and Accuracy of Magnetic Encoders," in IEEE ICIRS, Nice, France, 2008.
[16] H. V. Hoang and J. W. Jeon, "An Efficient Approach to Correct the Signals and Generate High-Resolution Quadrature Pulses for Magnetic Encoders," IEEE Trans. on IE, vol. No. 8, pp. 3634-3646, August 2011.
[17] J. W. Jeon, S. J. Cho and H. V. Hoang, "Apparatus and Method for Compensating Signals of Magnetic Encoder Using Digital Phase-Locked Loop". US Patent US 2015/0030104 A1, 29 1 2015.
[18] A. Bunte and S. Beineke, "High-Performance Speed Measurement by Suppression of Systematic Resolver and Encoder Errors," IEEE Transaction on Industrial Electronics, vol. No. 1, pp. 49-53, February 2004.
[19] K. K. Tan and K. Z. Tang, "Adaptive Online Correction and Interpolation of Quadrature Encoder Signals Using Radial Basis Functions," IEEE Transaction on Control Systems Technology, vol. No. 3, pp. 370-377, May 2005.
[20] R. Hoseinnezhad and A. Bab-Hadiashar, "Calibration of Resolver Sensors in Electromechanical Braking Systems: A Modified Recursive Weighted Least-Squares Approach," IEEE Transactions on Industrial Electronics, vol. No. 2, pp. 1052-1060, April 2007.
[21] B. Razavi, "Phase-Locked Loop," in Design of Monolithic Phase-Locked Loops and Clock Recovery Circuits—A Tutorial, 1996, pp. 13-14.
[22] Hiwin, "Hiwin Linear Technology - Positioner (English Spec.)," [Online]. Available: http://www.amce.hu/web/HIWIN/HN_Positionier_Engl.pdf.
[23] B. C. Baker, "理解儀表放大器並不難," 18 7 2011. [Online]. Available: http://www.eettaiwan.com/STATIC/PDF/201107/20110718_TI_AN01.pdf?SOURCES=DOWNLOAD.
[24] "AD623 Datasheet," [Online]. Available: www.analog.com.
[25] 立肯科技, “WaveSurfer 3000系列高精密數位示波器,” 立肯科技, [線上]. Available: http://www.lecoln.com.tw/goods_detail/108.
[26] “通訊原理第五章,” 教育部資通訊科技人才培育先導型計畫.
[27] 國家儀器, “FPGA基本概念,” 7 2 2017. [線上]. Available: http://www.ni.com/white-paper/6983/zht/.
[28] I. O. f. Standardizations, ISO 230-2:2006 Test Code for Machine Tools - Determination of Accuracy and Repeatability of Positioning Numerically Controlled Axes, 2006.
[29] M. Benammar, "A Novel Amplitude-to-Phase Converter for Sine/Cosine Position Transducers," International Journal of Electronics, vol. No. 4, pp. 353-365, April 2007.
[30] J. R. R. Mayer, "High Resolution of Rotary Encoder Analog Quadrature Signals," IEEE Transactions on Instrumentation and Measurement, pp. 494 - 498, June 1994.
[31] K. K. Tan, H. X. Zhou and T. H. Lee, "New Interpolation Method for Quadrature Encoder Signals," IEEE Transaction on Instrumentation and Measurement, vol. 5, pp. 1073-1079, October 2002.
[32] B. Hoscheler and L. Szamel, "Innovative Technique for Easy High-resolution Position Acquisition with Sinusoidal Incremental Encoders," International Conference on Power Conversion/Intelligent Motion, pp. 407-416, 1997.

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