簡易檢索 / 詳目顯示

研究生: 謝侑瑾
Hsieh, Yu-Chin
論文名稱: 相位變化微波感測器基於負群延遲特徵應用於喉音偵測
Phase-Variation Microwave Sensor Based on the Characteristic of the Negative Group Delay for Glottal Detection
指導教授: 楊慶隆
Yang, Chin-Lung
學位類別: 碩士
Master
系所名稱: 電機資訊學院 - 電機工程學系
Department of Electrical Engineering
論文出版年: 2023
畢業學年度: 111
語文別: 中文
論文頁數: 108
中文關鍵詞: 喉音偵測微波感測器負群延遲相位解調低頻侷限型表面電漿共振器
外文關鍵詞: Glottal detection, Microwave sensors, Negative group delay, Phase demodulation, Spoof localized surface plasmon
相關次數: 點閱:36下載:0
分享至:
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
  • 摘要 I EXTENDED ABSTRACT III 誌謝 IX 目錄 X 圖目錄 XIII 表目錄 XVI 縮寫總表 XVII 第一章 緒論 1 1.1 研究動機與方向 1 1.2 背景與文獻回顧 3 1.2.1 喉音偵測裝置與技術 3 1.2.1.1 喉頻閃攝影術(Videostroboscopy) 3 1.2.1.2 電子聲門儀(Electroglottography, EGG) 3 1.2.1.3 電磁式感測器 4 1.2.1.4 喉音偵測雷達 6 1.2.1.5 光纖光柵式(Fiber Bragg grating, FBG)感測器 7 1.2.1.6 壓電式(Piezoelectric)感測器 7 1.2.1.7 微波平面共振感測器 7 1.2.1.8 各項量測裝置之比較 8 1.2.2 平面微波相位變化之優化方法 10 1.2.2.1 增長電氣長度(Electrical length) 10 1.2.2.2 慢波(Slow-wave)結構 12 1.2.2.3 超穎材料(Metamaterials)與左手(Left-handed, LH)傳輸線 12 1.2.2.4 步階阻抗(Step-impedance)的不連續性(Discontinuity) 13 1.3 論文架構 15 1.4 研究貢獻 16 第二章 平面微波共振感測器 17 2.1 平面微波共振器之優勢 17 2.2 共振器量測原理 17 2.2.1 頻率偏移量測法 17 2.2.2 振幅解調量測法 20 2.2.3 相位解調量測法 21 第三章 相位感測器之設計與分析 23 3.1 負群延遲與負群速度 23 3.2 NGD現象應用於相位感測之探討 27 3.2.1 相位變化量提升之驗證 27 3.2.1.1 NGD 相位感測器設計 27 3.2.1.2 相位感測器之性能比較 29 3.2.2 相位感測器之改善方向 30 3.3 低頻侷限型表面電漿共振器之分析與設計 32 3.3.1 低頻侷限型表面電漿共振器 32 3.3.2 共振器之設計 34 3.3.2.1 SLSP共振結構之設計 37 3.3.2.2 激發結構之設計 42 3.3.2.3 共振結構整合與縮小化 46 3.3.2.4 共振器實作與量測 54 第四章 量測系統設計與喉音實驗 56 4.1 量測系統設計 56 4.1.1 動態相位解調量測系統 56 4.1.1.1 振動儀量測驗證 58 4.1.1.2 動態喉音偵測實驗與討論 62 4.1.2 基於鎖頻迴路之頻率解調系統 65 4.1.2.1 FLL感測電路 66 4.1.2.2 延遲線解調電路 70 4.1.2.3 完整系統電路驗證 75 4.2 FLL頻率解調系統喉音偵測實驗 79 4.2.1 低音喇叭量測驗證 80 4.2.2 喉音偵測實驗 84 4.2.2.1 IQ圓校正討論 85 4.2.2.2 實驗結果與討論 88 4.2.2.3 喉音辨識調查 96 第五章 結論與未來展望 99 5.1 結論 99 5.2 未來展望 100 5.2.1 系統改良 100 5.2.2 喉音辨識模型 100 參考文獻 102

    [1] C. Xu, Z. Li, H. Zhang, A. S. Rathore, H. Li, C. Song, et al., "Waveear: Exploring a mmwave-based noise-resistant speech sensing for voice-user interface," in Proceedings of the 17th Annual International Conference on Mobile Systems, Applications, and Services, 2019, pp. 14-26.
    [2] C.-S. Lin, S.-F. Chang, C.-C. Chang, and C.-C. Lin, "Microwave Human Vocal Vibration Signal Detection Based on Doppler Radar Technology," IEEE Transactions on Microwave Theory and Techniques, vol. 58, pp. 2299-2306, 2010.
    [3] M. Puentes, C. Weiß, M. Schüßler, and R. Jakoby, "Sensor array based on split ring resonators for analysis of organic tissues," in 2011 IEEE MTT-S International Microwave Symposium, 2011, pp. 1-4.
    [4] T. C. Chang, C. M. Hsu, K. W. Chen, and C. L. Yang, "Wearable sensors based on a high sensitive complementary split-ring resonator for accurate cardiorespiratory sign measurements," in 2017 IEEE MTT-S International Microwave Symposium (IMS), 2017, pp. 208-210.
    [5] T. Chang, P. Chan, C. Chen, K. Chen, and C. Yang, "Fingertip Pulse Signals Enhanced by Using Intermodulation Multiplication of Active High-Sensitivity Split-Ring Resonator," in 2018 IEEE/MTT-S International Microwave Symposium - IMS, 2018, pp. 1416-1418.
    [6] P. K. Chan, C. C. Chen, and C. L. Yang, "Systolic and Diastolic Blood Pressure Estimation from Pulse Transit Time Using Dual Split-Ring Resonators with Notch Structure," in 2019 IEEE MTT-S International Microwave Symposium (IMS), 2019, pp. 361-364.
    [7] C. T. Chang, C. L. Yang, U. Dey, and J. Hesselbarth, "Measuring Vital Signs on Fingertip Using K-Band Spherical Dielectric Resonator," in 2020 50th European Microwave Conference (EuMC), 2021, pp. 933-936.
    [8] D. Andreuccetti, R. Fossi, and C. Petrucci. (1997). An internet resource for the calculation of the dielectric properties of body tissues in the frequency range 10 Hz-100 GHz. Available: http://niremf.ifac.cnr.it/tissprop/
    [9] C. Yang, C. Lee, K. Chen, and K. Chen, "Noncontact Measurement of Complex Permittivity and Thickness by Using Planar Resonators," IEEE Transactions on Microwave Theory and Techniques, vol. 64, pp. 247-257, 2016.
    [10] A. Sharma, A. Singh, V. Gupta, and S. Arya, "Advancements and future prospects of wearable sensing technology for healthcare applications," Sensors & Diagnostics, vol. 1, pp. 387-404, 2022.
    [11] A. Nacci, S. O. Romeo, M. D. Cavaliere, A. Macerata, L. Bastiani, G. Paludetti, et al., "Comparison of electroglottographic variability index in euphonic and pathological voice," Acta otorhinolaryngologica Italica : organo ufficiale della Societa italiana di otorinolaringologia e chirurgia cervico-facciale, vol. 39, pp. 381-388, 2019.
    [12] G. C. Burnett, "The physiological basis of Glottal electromagnetic micropower sensors (GEMS) and their use in defining an excitation function for the human vocal tract," 9925723 Ph.D., University of California, Davis, Ann Arbor, 1999.
    [13] D. R. Brown, K. Keenaghan, and S. Desimini, "Measuring glottal activity during voiced speech using a tuned electromagnetic resonating collar sensor," Measurement Science and Technology, vol. 16, pp. 2381-2390, 2005/10/20 2005.
    [14] M. Geiger, D. Schlotthauer, and C. Waldschmidt, "Improved Throat Vibration Sensing with a Flexible 160-GHz Radar through Harmonic Generation," in 2018 IEEE/MTT-S International Microwave Symposium - IMS, 2018, pp. 123-126.
    [15] Y. Ma, H. Hong, H. Li, H. Zhao, Y. Li, L. Sun, et al., "Non-Contact Speech Recovery Technology Using a 24 GHz Portable Auditory Radar and Webcam," Remote Sensing, vol. 12, p. 653, 2020.
    [16] X. Hui, T. B. Conroy, and E. C. Kan, "Near-Field Coherent Sensing of Vibration With Harmonic Analysis and Balance Signal Injection," IEEE Transactions on Microwave Theory and Techniques, vol. 69, pp. 1906-1916, 2021.
    [17] C. Xu, Z. Li, H. Zhang, A. S. Rathore, H. Li, C. Song, et al., "WaveEar: Exploring a mmWave-based Noise-resistant Speech Sensing for Voice-User Interface," presented at the Proceedings of the 17th Annual International Conference on Mobile Systems, Applications, and Services, Seoul, Republic of Korea, 2019.
    [18] H. Li, C. Xu, A. S. Rathore, Z. Li, H. Zhang, C. Song, et al., "VocalPrint: A mmWave-based Unmediated Vocal Sensing System for Secure Authentication," IEEE Transactions on Mobile Computing, pp. 1-1, 2021.
    [19] C. Li, X. Peng, H. Zhang, C. Wang, S. Fan, and S. Cao, "Wearable side-polished fiber Bragg grating sensor for pulse wave and throat sound detection," in 2017 IEEE SENSORS, 2017, pp. 1-3.
    [20] A. Shahina and B. Yegnanarayana, "Language identification in noisy environments using throat microphone signals," in Proceedings of 2005 International Conference on Intelligent Sensing and Information Processing, 2005., 2005, pp. 400-403.
    [21] A. Carullo, A. Vallan, and A. Astolfi, "Design Issues for a Portable Vocal Analyzer," IEEE Transactions on Instrumentation and Measurement, vol. 62, pp. 1084-1093, 2013.
    [22] D. Ishac, A. Abche, S. Matta, E. Karam, G. Nassar, and D. Callens, "Detection of the vocal cords' vibrations: Effect of the transducer's position," in 2018 IEEE International Instrumentation and Measurement Technology Conference (I2MTC), 2018, pp. 1-6.
    [23] Y. R. Ho and C. L. Yang, "A Wearable Throat Vibration Microwave Sensor Based on Split-Ring Resonator for Harmonics Detection," in 2020 IEEE/MTT-S International Microwave Symposium (IMS), 2020, pp. 504-507.
    [24] O. Siddiqui, R. Ramzan, M. Amin, and O. M. Ramahi, "A Non-Invasive Phase Sensor for Permittivity and Moisture Estimation Based on Anomalous Dispersion," Sci Rep, vol. 6, p. 28626, Jun 27 2016.
    [25] J. Munoz-Enano, P. Velez, L. Su, M. Gil, P. Casacuberta, and F. Martin, "On the Sensitivity of Reflective-Mode Phase-Variation Sensors Based on Open-Ended Stepped-Impedance Transmission Lines: Theoretical Analysis and Experimental Validation," IEEE Transactions on Microwave Theory and Techniques, vol. 69, pp. 308-324, 2021.
    [26] L. Su, J. Muñoz-Enano, P. Velez, P. C. Orta, M. Gil, and F. Martin, "Highly Sensitive Phase Variation Sensors Based on Step-Impedance Coplanar Waveguide (CPW) Transmission Lines," IEEE Sensors Journal, vol. 21, pp. 2864-2872, 2021.
    [27] J. Muñoz-Enano, P. Vélez, M. G. Barba, and F. Martín, "An Analytical Method to Implement High-Sensitivity Transmission Line Differential Sensors for Dielectric Constant Measurements," IEEE Sensors Journal, vol. 20, pp. 178-184, 2020.
    [28] D. M. Pozar, Microwave engineering: John wiley & sons, 2011.
    [29] A. Ebrahimi, J. Coromina, J. Munoz-Enano, P. Velez, J. Scott, K. Ghorbani, et al., "Highly Sensitive Phase-Variation Dielectric Constant Sensor Based on a Capacitively-Loaded Slow-Wave Transmission Line," IEEE Transactions on Circuits and Systems I: Regular Papers, vol. 68, pp. 2787-2799, 2021.
    [30] V. Radonic, S. Birgermajer, and G. Kitic, "Microfluidic EBG Sensor Based on Phase-Shift Method Realized Using 3D Printing Technology," Sensors (Basel), vol. 17, Apr 18 2017.
    [31] J. Coromina, J. Muñoz-Enano, P. Vélez, A. Ebrahimi, J. Scott, K. Ghorbani, et al., "Capacitively-Loaded Slow-Wave Transmission Lines for Sensitivity Improvement in Phase-Variation Permittivity Sensors," in 2020 50th European Microwave Conference (EuMC), 2021, pp. 491-494.
    [32] A. Lai, T. Itoh, and C. Caloz, "Composite right/left-handed transmission line metamaterials," IEEE Microwave Magazine, vol. 5, pp. 34-50, 2004.
    [33] V. Radonić, S. Birgermajer, I. Podunavac, M. Djisalov, I. Gadjanski, and G. Kitić, "Microfluidic Sensor Based on Composite Left-Right Handed Transmission Line," Electronics, vol. 8, p. 1475, 2019.
    [34] V. Radonic, N. Cselyuszka, V. Crnojevic-Bengin, and G. Kitic, "Phase-shift transmission line method for permittivity measurement and its potential in sensor applications," in Electromagnetic Materials and Devices, ed: IntechOpen London, UK, 2020.
    [35] L. Su, J. Munoz-Enano, P. Velez, P. C. Orta, M. Gil, and F. Martin, "Highly Sensitive Phase Variation Sensors Based on Step-Impedance Coplanar Waveguide (CPW) Transmission Lines," IEEE Sensors Journal, vol. 21, pp. 2864-2872, 2021.
    [36] 王耀輝, "平面互補式開口環型諧振器感測曲面生物組織厚度及曲度," 電機工程學系, 國立成功大學, 2021.
    [37] J.-S. G. Hong and M. J. Lancaster, Microstrip filters for RF/microwave applications: John Wiley & Sons, 2004.
    [38] C. M. Hymel, M. H. Skolnick, R. A. Stubbers, and M. E. Brandt, "Temporally advanced signal detection: A review of the technology and potential applications," IEEE Circuits and Systems Magazine, vol. 11, pp. 10-25, 2011.
    [39] B. Ravelo, Negative Group Delay Devices: From Concepts to Applications vol. 43: Materials, Circuits and Device, 2019.
    [40] M. W. Mitchell and R. Y. Chiao, "Causality and negative group delays in a simple bandpass amplifier," American Journal of Physics, vol. 66, pp. 14-19, 1998.
    [41] M. Kitano, T. Nakanishi, and K. Sugiyama, "Negative group delay and superluminal propagation: an electronic circuit approach," IEEE Journal of Selected Topics in Quantum Electronics, vol. 9, pp. 43-51, 2003.
    [42] Z. Wang, Y. Cao, T. Shao, S. Fang, and Y. Liu, "A Negative Group Delay Microwave Circuit Based on Signal Interference Techniques," IEEE Microwave and Wireless Components Letters, vol. 28, pp. 290-292, 2018.
    [43] G. Chaudhary, Y. Jeong, and J. Lim, "Realization of Negative Group Delay Network Using Defected Microstrip Structure," International Journal of Antennas and Propagation, vol. 2014, p. 836960, 2014/04/08 2014.
    [44] O. Siddiqui, M. Shah, M. Amin, R. Ramzan, M. Harun, and H. Abutarboush, "An Ultra-Sensitive Lorentz Microwave Sensor for Detection of Low-Permittivity Gaseous Water States and Sub-Wavelength Biosamples," IEEE Sensors Journal, vol. 21, pp. 26014-26022, 2021.
    [45] M. H. Zarifi, T. Thundat, and M. Daneshmand, "High resolution microwave microstrip resonator for sensing applications," Sensors and Actuators A: Physical, vol. 233, pp. 224-230, 2015.
    [46] M. Abdolrazzaghi, M. H. Zarifi, and M. Daneshmand, "Wireless communication in feedback-assisted active sensors," IEEE Sensors Journal, vol. 16, pp. 8151-8157, 2016.
    [47] J. Osterberg and P. Wang, "Two-stage radio-frequency interferometer sensors," Applied Physics Letters, vol. 107, p. 172907, 2015.
    [48] H. P. Uranus and H. J. W. M. Hoekstra, "Modeling of Loss-Induced Superluminal and Negative Group Velocity in Two-Port Ring-Resonator Circuits," Journal of Lightwave Technology, vol. 25, pp. 2376-2384, 2007/09/01 2007.
    [49] R. Wibom, "2 - Light—Definitions and Measurements," in Light and Biological Rhythms in Man, L. Wetterberg, Ed., ed Amsterdam: Pergamon, 1993, pp. 23-28.
    [50] C. Nylander, B. Liedberg, and T. Lind, "Gas detection by means of surface plasmon resonance," Sensors and Actuators, vol. 3, pp. 79-88, 1982.
    [51] B. Liedberg, C. Nylander, and I. Lunström, "Surface plasmon resonance for gas detection and biosensing," Sensors and Actuators, vol. 4, pp. 299-304, 1983.
    [52] J. Homola, "Present and future of surface plasmon resonance biosensors," Analytical and Bioanalytical Chemistry, vol. 377, pp. 528-539, 2003.
    [53] J. Homola, "Surface plasmon resonance sensors for detection of chemical and biological species," Chemical Reviews, vol. 108, pp. 462-493, 2008.
    [54] K. M. Mayer and J. H. Hafner, "Localized surface plasmon resonance sensors," Chemical Reviews, vol. 111, pp. 3828-3857, 2011.
    [55] S. Szunerits and R. Boukherroub, "Sensing using localised surface plasmon resonance sensors," Chemical Communications, vol. 48, pp. 8999-9010, 2012.
    [56] M. L. Brongersma and P. G. Kik, Surface plasmon nanophotonics vol. 131: Springer, 2007.
    [57] J. B. Pendry, L. Martín-Moreno, and F. J. Garcia-Vidal, "Mimicking Surface Plasmons with Structured Surfaces," Science, vol. 305, pp. 847-848, 2004.
    [58] A. Pors, E. Moreno, L. Martin-Moreno, J. B. Pendry, and F. J. Garcia-Vidal, "Localized Spoof Plasmons Arise while Texturing Closed Surfaces," Physical Review Letters, vol. 108, p. 223905, 05/31/ 2012.
    [59] J. Zhou, L. Chen, Q. Sun, D. Liao, L. Ding, A. V. Balakin, et al., "Terahertz on-chip sensing by exciting higher radial order spoof localized surface plasmons," Applied Physics Express, vol. 13, p. 012014, 2019.
    [60] L. H. Dai, H. Z. Zhao, X. Zhao, and Y. J. Zhou, "Flexible and printed microwave plasmonic sensor for noninvasive measurement," IEEE Access, vol. 8, pp. 163238-163243, 2020.
    [61] N. Pandit, R. K. Jaiswal, and N. P. Pathak, "Plasmonic Metamaterial-Based Label-Free Microfluidic Microwave Sensor for Aqueous Biological Applications," IEEE Sensors Journal, vol. 20, pp. 10582-10590, 2020.
    [62] X. Zhang, R. T. Yan, and T. J. Cui, "High-FoM Resonance in Single Hybrid Plasmonic Resonator Via Electromagnetic Modal Interference," IEEE Transactions on Antennas and Propagation, vol. 68, pp. 6447-6451, 2020.
    [63] J. W. Zhu, X. Zhang, and T. J. Cui, "Ultra-Sensitive and Real-Time Sensing Based on Deep-Subwavelength Spoof Localized Surface Plasmons," in 2021 Computing, Communications and IoT Applications (ComComAp), 2021, pp. 352-355.
    [64] X. Zhang, W. Y. Cui, Y. Lei, X. Zheng, J. Zhang, and T. J. Cui, "Spoof localized surface plasmons for sensing applications," Advanced materials technologies, vol. 6, p. 2000863, 2021.
    [65] J. Wu, Y. Li, F. Ding, H. Cheng, Z. Shen, and H. Yang, "High-Order Localized Spoof Surface Plasmons Resonator for High Sensitivity Sensing," IEEE Sensors Journal, vol. 22, pp. 12861-12868, 2022.
    [66] X. Yang, X. Tian, Q. Zeng, Z. Li, D. T. Nguyen, and J. S. Ho, "Localized Surface Plasmons on Textiles for Non-Contact Vital Sign Sensing," IEEE Transactions on Antennas and Propagation, vol. 70, pp. 8507-8517, 2022.
    [67] B. J. Yang, Y. J. Zhou, and Q. X. Xiao, "Spoof localized surface plasmons in corrugated ring structures excited by microstrip line," Optics Express, vol. 23, pp. 21434-21442, 2015/08/10 2015.
    [68] X. Zhang, D. Bao, J. F. Liu, and T. J. Cui, "Wide‐Bandpass Filtering Due to Multipole Resonances of Spoof Localized Surface Plasmons," Annalen der Physik, vol. 530, p. 1800207, 2018.
    [69] R. K. Jaiswal, N. Pandit, and N. P. Pathak, "Amplification of Propagating Spoof Surface Plasmon Polaritons in Ring Resonator-Based Filtering Structure," IEEE Transactions on Plasma Science, vol. 48, pp. 3253-3260, 2020.
    [70] D. Bao, K. Z. Rajab, W. X. Jiang, Q. Cheng, Z. Liao, and T. J. Cui, "Experimental demonstration of compact spoof localized surface plasmons," Optics Letters, vol. 41, pp. 5418-5421, 2016.
    [71] P. A. Huidobro, X. Shen, J. Cuerda, E. Moreno, L. Martin-Moreno, F. J. Garcia-Vidal, et al., "Magnetic Localized Surface Plasmons," Physical Review X, vol. 4, p. 021003, 04/03/ 2014.
    [72] Z. Liao, B. C. Pan, X. Shen, and T. J. Cui, "Multiple Fano resonances in spoof localized surface plasmons," Optics express, vol. 22, pp. 15710-15717, 2014.
    [73] J. Xu, H. C. Zhang, W. Tang, J. Guo, C. Qian, and W. Li, "Transmission-spectrum-controllable spoof surface plasmon polaritons using tunable metamaterial particles," Applied Physics Letters, vol. 108, p. 191906, 2016.
    [74] L. Liu, Z. Li, B. Xu, P. Ning, C. Chen, J. Xu, et al., "Dual-band trapping of spoof surface plasmon polaritons and negative group velocity realization through microstrip line with gradient holes," Applied Physics Letters, vol. 107, 2015.
    [75] X. Shen and T. Jun Cui, "Planar plasmonic metamaterial on a thin film with nearly zero thickness," Applied Physics Letters, vol. 102, 2013.
    [76] A. Kianinejad, Z. N. Chen, and C.-W. Qiu, "Low-loss spoof surface plasmon slow-wave transmission lines with compact transition and high isolation," IEEE Transactions on Microwave Theory and Techniques, vol. 64, pp. 3078-3086, 2016.
    [77] H. F. Ma, X. Shen, Q. Cheng, W. X. Jiang, and T. J. Cui, "Broadband and high‐efficiency conversion from guided waves to spoof surface plasmon polaritons," Laser & Photonics Reviews, vol. 8, pp. 146-151, 2014.
    [78] B. Zhao, M. Tang, Z. Shao, Y. Zhang, and J. Mao, "Design of Broadband Compact Grid Array Antennas Using Gradient Slow-Wave Structures," IEEE Antennas and Wireless Propagation Letters, vol. 21, pp. 620-624, 2022.
    [79] X. Liu, L. Zhu, Q. Wu, and Y. Feng, "Highly-confined and low-loss spoof surface plasmon polaritons structure with periodic loading of trapezoidal grooves," AIP Advances, vol. 5, 2015.
    [80] M. Gholamian, J. Shabanpour, and A. Cheldavi, "Highly sensitive quarter-mode spoof localized plasmonic resonator for dual-detection RF microfluidic chemical sensor," Journal of Physics D: Applied Physics, vol. 53, p. 145401, 2020.
    [81] J. H. Fu, W. J. Wu, D. W. Wang, and W. S. Zhao, "High-Sensitivity Microfluidic Sensor Based on Quarter-Mode Interdigitated Spoof Plasmons," IEEE Sensors Journal, vol. 22, pp. 23888-23895, 2022.
    [82] I. R. Titze, "Physiologic and acoustic differences between male and female voices," The Journal of the Acoustical Society of America, vol. 85, pp. 1699-1707, 1989.
    [83] I. R. Titze, J. G. Svec, and P. S. Popolo, "Vocal dose measures," 2003.
    [84] T. Force, "Measurement of audible noise from transmission lines," IEEE Transactions on Power Apparatus and Systems, pp. 1440-1452, 1981.
    [85] C. H. Tseng and C. Y. Yang, "Novel Microwave Frequency-Locked-Loop-Based Sensor for Complex Permittivity Measurement of Liquid Solutions," IEEE Transactions on Microwave Theory and Techniques, vol. 70, pp. 4556-4565, 2022.
    [86] Q. Wang, M. Han, Y. Wen, M. He, and X. He, "Comparison of the Segmentation Results of Two Carrier Tracking Loop Types and Analysis of Theoretical Influencing Factors," Remote Sensing, vol. 13, p. 2035, 2021.
    [87] F.-K. Wang, C.-J. Li, C.-H. Hsiao, T.-S. Horng, J. Lin, K.-C. Peng, et al., "A novel vital-sign sensor based on a self-injection-locked oscillator," IEEE Transactions on Microwave Theory and Techniques, vol. 58, pp. 4112-4120, 2010.
    [88] K.-C. Peng, M.-C. Sung, F.-K. Wang, and T.-S. Horng, "A wireless-frequency-locked-loop-based vital sign sensor with quadrature tracking and phase-noise reduction capability," IEEE Sensors Journal, vol. 21, pp. 9706-9715, 2020.
    [89] H. Gheidi and A. Banai, "An ultra-broadband direct demodulator for microwave FM receivers," IEEE Transactions on Microwave Theory and Techniques, vol. 59, pp. 2131-2139, 2011.
    [90] W. A. Sethares, Tuning, timbre, spectrum, scale: Springer Science & Business Media, 2005.
    [91] P. Warden, "Speech commands: A dataset for limited-vocabulary speech recognition," arXiv preprint arXiv:1804.03209, 2018.
    [92] 劉祈宏, "以生成式深度學習達成多語者跨語言之語音轉換," 長庚大學, 2021.

    無法下載圖示 校內:2028-08-24公開
    校外:2028-08-24公開
    電子論文尚未授權公開,紙本請查館藏目錄
    QR CODE