國立陽明交通大學光電學院

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首頁系所介紹光電系統研究所內文

系所介紹

師資陣容

趙昌博

職稱:合聘教授

辦公室位置:
感測電子與控制實驗室
辦公室電話:
Office: 31377; lab: 54301 (03)5737634
信箱:
pchao@nycu.edu.tw
網頁:
https://pchao.lab.nycu.edu.tw/
專長:
光電系統趨動及感測IC、下世代顯示系統、微發電系統及儲能IC、生醫光電影像感測技術及IC
研究:
2010 3D姿勢感測、追蹤與顯示系統與嵌入式晶片系統開發(2/2) 趙昌博 2009年08月 ~ 2011年07月 /
2010 CNC伺服馬達的智慧型串列界面控制技術發展(2/3) 趙昌博 2009年08月 ~ 2012年08月 /
2010 可攜式EEG/EKG/fNIRS腦神經影像系統研發暨其整合型生醫感測處理晶片系統設計-子計畫二:EEG/EKG/fNIRS 之整合型微機電生醫感測器及前端類比電路設計(3/3) 趙昌博 2010年08月 ~ 2011年07月 /
2011 高解析(640X480)熱影像感測模組 趙昌博 2011年01月 ~ 2011年12月 /
2011 具通訊與容錯功能之智慧車用電池模組管理系統-子計畫二:具即時溫度補償能力之車用鋰電池電源管理系統設計 趙昌博 2011年08月 ~ 2012年7月 /
2012 高解析(640X480)熱影像感測模組(II) 趙昌博 2012年01月 ~ 2012年12月 /
2012 具通訊與容錯功能之智慧車用電池模組管理系統-子計畫二:具即時溫度補償能力之車用鋰電池電源管理系統設計 趙昌博 2012年08月 ~ 2013年7月 /
2013 創新無線易穿戴非侵入式之脈博血壓感測系統-子計畫三: 具自我校正功能之脈博血壓應變感測陣列前端類比電路 趙昌博 2013年08月 ~ 2014年7月 /
2013 建立雲端個人智慧型心血管有限單元動力模型以供行動裝置感測、監控及診斷使用 趙昌博 2013年10月 ~ 2014年9月 /

學歷一覽

  • 學校名稱

    國別

    系所

    學位

    起迄年月

  • 密西根州立大學

    國別:美國

    系所:機械工程

    學位:博士

    起迄年月:

  • 密西根州立大學

    國別:美國

    系所:機械工程

    學位:碩士

    起迄年月:

  • 國立成功大學

    國別:臺灣

    系所:機器工程

    學位:學士

    起迄年月:

經歷一覽

  • 服務機關

    職稱

    部門/系所

    擔任職務

    起迄年月

  • 陽明交通大學

    職稱:講座教授

    部門/系所:電控系

    擔任職務:

    起迄年月:

  • 陽明交通大學

    職稱:資深教授

    部門/系所:電機系

    擔任職務:

    起迄年月:

  • 陽明交通大學

    職稱:

    部門/系所:進修推廣部

    擔任職務:主任

    起迄年月:

  • 交通大學

    職稱:副教授

    部門/系所:

    擔任職務:電控系

    起迄年月:

  • 國際電機和電子工程師學會及美國機械工程師學會

    職稱:會士

    部門/系所:

    擔任職務:

    起迄年月:

  • IEEE Journal of Selected Areas in Sensors

    職稱:副主編

    部門/系所:

    擔任職務:

    起迄年月:

  • IEEE Sensors Journal & IEEE IoT Journal

    職稱:專題編輯

    部門/系所:

    擔任職務:

    起迄年月:

  • IEEE Transactions and on Industrial Informatics

    職稱:副編輯

    部門/系所:

    擔任職務:

    起迄年月:

  • 福特汽車公司

    職稱:產品開發工程師

    部門/系所:台灣分公司

    擔任職務:

    起迄年月:

  • 克萊斯勒公司 密歇根州奧本山

    職稱:電腦輔助工程師

    部門/系所:動力傳動部門

    擔任職務:

    起迄年月:

論文著作

五年內期刊論文:
1. Shih-Song Cheng, Paul C.-P. Chao*, “An Ultra-High 6318 PPI Pixel Circuit for Micro OLED Displays with Vth Compensated up to 10-bit Gray Levels,” Dec 2023, IEEE Journal of Solid-State Circuits, accepted. (SCI Journal, Impact Factor = 6.126, Ranking = 57/708 (0.080), Instruments & Instrumentation).
2. Shih-Song Cheng, Paul C.-P. Chao*, “A High 6318-PPI Pixel Circuit That Realizes 10-bit Gray Levels for Analog-PWM Driven Micro-LED Displays,” Dec 2023, IEEE Transations on Electron Devices, accepted. (SCI Journal, Impact Factor = 3.221, Ranking = 183/708 (0.258), Electrical and Electronic Engineering)
3. Shih-Song Cheng, Paul C.-P. Chao*, “A High 5292-PPI Pixel Circuit for Micro Displays with 10-bit Gray Levels Realized via the Technique of Analog Sub-Frame Integral,” Aug 2023, IEEE Journal of the Electron Devices Society, vol. 11, pp. 456-466. (SCI Journal, Impact Factor = 2.523, Ranking = 150/276 (0.543), Electrical and Electronic Engineering)
4. Shih-Song Cheng, Paul C.-P. Chao*, “A New SRAM-Embedded Pixel Circuit That Modulates Accurately Gray Level for PWM-Driven Micro-LED Displays,” June 2023, IEEE Solid-State Circuits Letters, vol. 6, pp. 157-160. (SCI Journal, Impact Factor = 2.7, Ranking = 14/72 (0.194), Instruments & Instrumentation).
5. Smriti Thakur, Paul C.-P. Chao* and Cheng-Han Tsai, “Precision Heart Rate Estimation Using a PPG Sensor Patch Equipped with New Algorithms of Pre-Quality Checking and Hankel Decomposition,” July 2023, Sensors, vol. 23, Iss 13, pp. 6180. (SCI Journal, Impact Factor = 3.9, Ranking = 19/63 (0.301), Instruments & Instrumentation).
6. Jun-Lin Lin, Pao-Ying Zheng and Paul C.-P. Chao*, 2023, “A new ECC implemented by FPGA with favorable combined performance of speed and area for lightweight IoT edge devices,” Microsystem Technologies, Access 176, 2023. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
7. I-Feng Chang, Hao-Ren Chen and Paul C.-P. Chao*, 2023, “Design and Implementation for a High Efficiency Hardware Accelerator to Realize the Learning Machine for Predicting OLED Degradation,” Microsystem Technologies, vol. 29, pp. 1069–1081, January 2023. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
8. Yi-Chang Lee, Jen-Yi Hsu and Paul C.-P. Chao*, 2023, “Design and Implementation of Machine Learning Models to Classify and Mitigate Muras of a Micro-LED Display,” Microsystem Technologies, vol. 29, pp. 1083–1098 29, Apr 2023. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
9. Chun-Heng You, Shuen-Ming Tsai and Paul C.-P. Chao*, 2023, “A novel clock recovering circuit to thwart clock glitch attacks on ring-oscillator-based TRNGs in edge devices like sensors,” Microsystem Technologies, vol. 29, pp. 1137–1145, Apr 2023. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
10. Duc Huy Nguyen, Paul C.-P. Chao*, Chih-Chieh Chung, Ray-Hua Horng, Bhaskar Choubey, 2022, “Detecting Atrial Fibrillation in Real Time Based on PPG via Two CNNs for Quality Assessment and Detection,” IEEE Sensors Journal, vol. 22, no. 24, 1 pp. 24102-24111. (SCI Journal, Impact Factor = 4.61, Ranking = 14/72 (0.194), Instruments & Instrumentation).
11. W.-W. Yen, Paul C.-P. Chao*, 2022, “A ZVS Phase-Shift Full-Bridge Converter with Input Current Steering to Reduce EMI noise,” IEEE Transactions on Power Electronics, vol. 37, iss. 10, pp. 11937-11950. (SCI Journal, Impact Factor = 6.153, Ranking = 26/344 (0.076), Electrical and Electronic Engineering).
12. Paul C.-P. Chao*, Shih-Song Cheng, Chiu-Hao Chen, and Kuei-Yu Lee, 2022, “A New IR-drop Model that Improves Effectively the Brightness Uniformity of an AMOLED Panel,” IEEE Journal of the Electron Devices Society, vol. 10, pp. 627-636. (SCI Journal, Impact Factor = 2.523, Ranking = 150/276 (0.543), Electrical and Electronic Engineering).
13. Duc Huy Nguyen, Paul C.-P. Chao*, Hong-Han Shuai, Yu-Wei Fang, and Bing Shi Lin, 2022, “Achieving High Accuracy in Predicting Blood Flow Volume at the Arteriovenous Fistulas of Hemodialysis Patients by Intelligent Quality Assessment on PPGs,” IEEE Sensors Journal, vol. 22, iss. 6, pp. 5844 - 5856. (SCI Journal, Impact Factor = 4.325, Ranking = 14/72 (0.194), Instruments & Instrumentation).
14. Tongjun Liu, Paul C.-P. Chao, Bhaskar Choubey, 2022, “Enhanced sensory identification in arrays of coupled resonant sensors,” IEEE Sensors Journal, vol. 22, Iss. 9, pp. 8557 - 8564. (SCI Journal, Impact Factor = 4.325, Ranking = 14/72 (0.194), Instruments & Instrumentation).
15. S. F. Lin, D. H. Nguyen, Paul C.-P. Chao*, H. R. Chen, 2022, “Prediction of OLED Temperature Distribution Based on Neural Network,” Microsystem Technologies, vol. 28, pp. 2215–2224. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
16. Phan Tan-Phat, Paul C.-P. Chao*, Huang Zih-We, 2022, “Design and implementation of a new torque controller via FPGA for 6-DOF articulated robots,” Microsystem Technologies, vol. 28, pp. 2259–2276. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
17. Rajeev Kumar Pandey and Paul C.-P. Chao*, 2022, “Design and development of a photoplethysmography based microsystem for mental stress estimation,” Microsystem Technologies, vol. 28, pp. 2277–2296. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
18. Rajeev Kumar Pandey, Eka Fitrah Pribadi and Paul C.-P. Chao*, 2022, “Technology scaling impact on VLSI interconnect and low swing signaling technique,” Microsystem Technologies, vol. 28, pp. 2337–2351. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
19. Eka Fitrah Pribadi, Rajeev Kumar Pandey and Paul C.-P. Chao*, 2022, “A New Delta-Sigma Analog to Digital Converter with High-Resolution and Low Offset for Detecting Photoplethysmography Signal,” Microsystem Technologies, vol. 28, pp. 2369–2379. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
20. C. K. Tasu, D. H. Nguyen, Bhaskar Choubey and Paul C.-P. Chao*, 2022, “High-performance infrared image processing with gray-scale dynamic range correction implemented by FPGA,” Microsystem Technologies, vol. 28, pp. 2235–2248. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
21. Rajeev Kumar Pandey and Paul C.-P. Chao*, 2022, “A Dual-Channel PPG Readout System with Motion Tolerant Adaptability for OLED-OPD Sensors," IEEE Transactions on Biomedical Circuits and Systems, vol. 16, no. 1, pp. 36-51. (Invited Paper for the Special Issue of ISCAS 2021, SCI Journal, Impact Factor = 5.234, Ranking = 59/276 (0.213), Eng., Electrical & Electronics)
22. Paul C.-P. Chao*, Chih-Cheng Wu, Duc Huy Nguyen, Ba-Sy Nguyen, Pin-Chia Huang and Van-Hung Le, 2021, “The Machine Learnings Leading the Cuffless PPG Blood Pressure Sensors into the Next Stage,” IEEE Sensors Journal, vol. 21, iss. 11, pp. 12498-12510. (Invited Paper for celebrating the 20th Anniversary of the IEEE Sensors Journal, SCI Journal, Impact Factor = 4.325, Ranking = 14/72 (0.194), Instruments & Instrumentation).
23. Wan-Yu Wu, Yu-Hsuan Hsu, Yi-Fan Chen, Yuh-Renn Wu, Han-Wen Liu, Tse-Yi Tu, Paul P.-C. Chao, Chih-Shan Tan, and Ray-Hua Horng, 2021, “Wearable Devices Made of a Wireless Vertical-Type Light-Emitting Diode Package on a Flexible Polyimide Substrate with a Conductive Layer,” ACS Applied Electronic Materials, vol. 3, iss. 2, pp. 979-987, DOI: 10.1021/acsaelm.0c0107. (SCI Journal, Impact Factor = 4.494, Ranking = 77/276 (0.27), Engineering, Electrical & Electronic)
24. Duc Huy Nguyen, Yu-Ting Chen, Tse-Yi Tu, Paul C.-P. Chao*, Yu-Wei Fang, Bing-Shi Lin, 2021, "A new blood flow volume sensor with embedded estimation of SpO2 to maximize its accuracy," Microsystem Technologies, vol. 27, iss. 6, pp. 2433-2445. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
25. Ba-Sy Nguyen and Paul C.-P. Chao*, 2021, "A switch module stacked by a 4 × 3 IGBT array with balanced voltage sharing for PEF applications," Microsystem Technologies, vol. 27, iss. 6, pp. 2407-2418. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
26. C. P. Chang, W.-W. Yen, and Paul C.-P. Chao*, 2021,"Design and simulation of a new wireless power transfer circuit with a single-stage regulating rectifier for flexible sensor patches,” Microsystem Technologies, vol. 27, iss. 6, pp. 2303–2314. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
27. Rajeev Kumar Pandey, Tse-Yu Lin, and Paul C.-P. Chao*, 2021, "Design and implementation of a photoplethysmography acquisition system with an optimized artificial neural network for accurate blood pressure measurement," Microsystem Technologies, vol. 27, iss. 6, pp. 2345-2367. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
28. Eka Fitrah Pribadi, Rajeev Kumar Pandey and Paul C.-P. Chao*, 2021, "Design and implementation of a new light to digital converter for the PPG sensor," Microsystem Technologies, vol. 27, iss. 6, pp. 2461-2472. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
29. Ba-Sy Nguyen, Wen-Wei Yen, Paul C.-P. Chao*, and Sheng-Ching Wang, Aug 2020, “A New High-Efficiency Power Management Circuit for a Novel Two-Phase Compensated Pulse Alternator,” IEEE Transactions on Plasma Science, vol. 48, Iss. 9, pp. 3176-3187. (SCI Journal, Impact Factor = 1.56, Ranking = 24/34(0.705), Physics, Fluids & Plasma)
30. Hong-Yu Chiu, Austin Shuai and Paul C.-P. Chao, June 2020, “Reconstructing QRS Complex from PPG by Transformed Attentional Neural Networks,” IEEE Sensors Journal, vol. 20, Iss. 20, pp. 12374-12383. (SCI Journal, Impact Factor = 3.301, Ranking = 14/72(0.194), Instruments & Instrumentation).
31. W.-W. Yen, and Paul C-P. Chao*, 2020, "Backpack energy harvester managed by a modified fly-back converter," Microsystem Technologies, vol. 55, pp. 1-11. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
32. Pandey, Rajeev Kumar, and Paul C-P. Chao*, 2020, "External temperature sensor assisted a new low power photoplethysmography readout system for accurate measurement of the bio-signs," Microsystem Technologies, vol. 27, iss. 6, pp. 2315-2343. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
33. Rajeev Kumar Pandey, Tzu Hao Huang, Wei-Hsuan Ho, Eka Fitrah Pribai and Paul C.-P. Chao*, 2020, “Achieving Sensing Precision Of 0.5nA In Pixel with 7us Settling Time by a New External Current Sensing Circuit for AMOLED Displays,” Microsystem Technologies, vol. 26, pp. 3349–3369. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
34. Wen-Yu Chen, I-Feng Chang, Paul C.-P. Chao*, Smriti Thakur and Tse-Yi Tu, 2020, “Design and implementation of a new high-accuracy interpolation encoder IC for magneto-resistive sensors,” Microsystem Technologies, vol. 26, pp. 3547–3559. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
35. Jeremy H.-S. Wang, Ming-Hua Yeh, Paul C.-P. Chao*, Tse-Yi Tu, Yuan-Hwa Kao, Rajeev Pandey, 2020, “A fast digital chip implementing a real-time noise-resistant algorithm for estimating blood pressure using a non-invasive, cuffless PPG sensor,” Microsystem Technologies, vol. 26, pp. 3501–3516. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
36. Chia Yu Chang, Paul C.-P. Chao*, 2020, “A Fast-Sensing Readout Circuit Enabled by Code Division Multiple Access Implemented for an Ultra-Thin On-Cell Flexible Capacitive Touch Panel,” Microsystem Technologies, vol. 26, pp. 3517–3531. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
37. Eka Fitrah Pribadi, Rajeev Kumar Pandey and Paul C.-P. Chao*, 2020, “Optimizing a novel PPG sensor patch via optical simulations towards accurate heart rates,” Microsystem Technologies, vol. 26, pp. 3409–3420. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
38. Tse-Yi Tu and Paul C.-P. Chao*, 2019, “Optimal Design of a New Strain-type Sensor for Cuff-less Blood Pressure Measurement via Finite Element Modeling and Taguchi Method,” IEEE Sensors Journal, vol. 19, Iss. 22, pp. 10355-10364. (SCI Journal, Impact Factor = 4.325, Ranking = 14/72(0.194), Instruments & Instrumentation)
39. Ming-Cheng Liu, Eka Fitrah Pribadi, Paul C.-P. Chao*, Rajeev Kumar Pandey, 2019, “A low-power reference-less clock/data recovery for visible light communication devices requiring low data throughput,” Microsystem Technologies, vol. 26, pp. 171–181. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
40. Ching-Cheng Yang, Rajeev Pandey, Tse-Yi Tu, Yuan-Po Cheng, Paul C.-P. Chao*, 20219, “An efficient energy harvesting circuit for batteryless IoT devicest,” Microsystem Technologies, vol. 26, pp. 195–207. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
41. Pei-Yu Chiang, Paul C.-P. Chao*, Tse-Yi Tu, Yung-Hua Kao, Chih-Yu Yang, Der-Cherng Tarng and Chin-Long Wey, 2019, “Machine Learning Classification for Assessing the Degree of Stenosis and Blood Flow Volume at Arteriovenous Fistulas of Hemodialysis Patients Using a New Photoplethysmography Sensor Devic,” MDPI Sensors, vol. 19, pp. 3422. (SCI Journal, Impact Factor = 3.576, Ranking =18/94 (0.191), Optics, Ranking = 16/61 (0.262), Instrument and Instrumentation)
42. Yung-Hua Kao, Paul C.-P. Chao* and Chin-Long Wey, 2019, “Design and Validation of a New PPG Module to Acquire High-Quality Physiological Signals for High-Accuracy Biomedical Sensing,” IEEE Journal of Selected Topics in Quantum Electronics, vol. 25, no. 1, pp. 69000210. (SCI Journal, Impact Factor = 4.544, Ranking =14/99 (0.141), Optics)
43. Yung-Hua Kao, Paul C.-P. Chao* and Chin-Long Wey, 2018, “Towards maximizing the sensing accuracy of an cuffless, optical blood pressure sensor using a high-order front-end filter,” Microsystem Technologies, vol. 24, iss. 11, pp. 4621–4630. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
44. Paul C.-P. Chao*, Pei-Yu Chiang, Yung-Hua Kao, Tse-Yi Tu, Chih-Yu Yang, Der-Cherng Tarng, Chin-Long Wey, 2018, “A Portable, Wireless Photoplethysomography (PPG) Sensor for Detecting Arteriovenous Fistula (AVF) Dysfunction Using Support Vector Machine,” MDPI Sensors, Vol. 18, Iss. 11, pp. 3854. (SCI Journal, Impact Factor = 3.014, Ranking =18/94 (0.191), Optics, Ranking = 16/61 (0.262), Instrument and Instrumentation)
45. Trong-Hieu Tran, Yu-Jen Wang, Chun-Kai Cheng, Paul C.-P. Chao*, Chun-Chieh Wang, 2018, “Using maximum likelihood to calibrate a six-DOF force/torque sensor,” Microsystem Technologies, vol. 24, iss. 11, pp. 4493-4509. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
46. Ming-Hung Yu and Paul C.-P. Chao*, 2018, “A new multi-mode multi-input–multi-output (MIMO) converter in an efficient low-voltage energy harvesting system for a gas sensor,” International Journal of Engineering Development and Research, vol. 6, iss. 3, pp. 352–358. (ISSN: 2321-9939)
47. Chun-Kai Cheng and Paul C.-P. Chao*, 2018, “Trajectory Tracking between Josephson Junction and Classical Chaotic System via Iterative Learning Control,” Applied Science, vol. 8, pp. 1285, Aug, 2018. (SCI Journal, Impact Factor = 1.913, Ranking = 150/274 (0.547), Multi-disciplinary)
48. Ming-Hung Yu and Paul C.-P. Chao*, 2018, “A new multi-mode multi-input–multi-output (MIMO) converter in an efficient low-voltage energy harvesting system for a gas sensor,” Microsystem Technologies, vol. 24, iss. 11, pp. 4477–4492. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
49. Chun-Kai Cheng and Paul C.-P. Chao*, 2018, “Chaotic Synchronizing Systems with Zero Time Delay and Free Couple via Iterative Learning Control,” Applied Science, vol. 8, pp. 177, Jan, 2018. (SCI Journal, Impact Factor = 1.913, Ranking = 150/274 (0.547), Multi-disciplinary)
50. Tse-Yi Tu and Paul C.-P. Chao*, 2018, “Continuous Blood Pressure Measurement Based on a Neural Network Scheme Applied with a Cuffless Device,” Microsystem Technologies, vol. 24, iss. 11, pp. 4539-4549. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
51. Pei-Yu Chiang and Paul C.-P. Chao*, Chih-Yu Yang, Der-Cherng Tarng, 2018, “Theoretical Developments and Clinical Experiments of Measuring Blood Flow Volume (BFV) at Arteriovenous Fistula (AVF) Using a Photoplethysmography (PPG) Sensor,” Microsystem Technologies, vol. 24, iss. 11, pp. 4587–4603. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
52. Paul C.-P. Chao*, Yu-Te Liao, Yu-Jen Wang, 2018, “The ISPS 2017 editorial for the 26th annual conference on information storage and processing systems, San Francisco, California, USA” Microsystem Technologies, vol. 24, iss. 11, pp. 4437. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
53. Tsung-Yen Ku, Paul C.-P. Chao*, Chin-Hai Huang, En-Chih Liu, Ming-Hua Yeh, Tong-Wen Wang, 2018, “Design and validation of the readout circuitry for an in-cell active-matrix capacitive (IAMC) touch panel,” Microsystem Technologies, vol. 24, iss. 11, pp. 4551-4559. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).
54. Eric P.-Y. Chiang, Paul C.-P. Chao*, Der-Cherng Tarng, Chih-Yu Yang, 2017, “A Novel Wireless Photoplethysmography Blood Flow Volume Sensor for Assessing Arteriovenous Fistula of Hemodialysis Patients,” IEEE Transactions on Industrial Electronics, vol. 64, iss. 12, pp. 9626-9635, 2017. (SCI Journal, Impact Factor = 7.050, Ranking = 1/61 (0.016), Instruments & Instrumentation, MOST 104-2923-M-009-002-, 105-2623-E-009-009-D and 105-2633-B-009-003)
55. Huai-San Wang, Kang-Fu Qiu and Paul C.-P. Chao*, 2017, “Control design and digital implementation of a fast 2 degree-of-freedom (2-DOF) translational optical image stabilizer (OIS) for image sensors in mobile camera phones,” MDPI Sensors, vol. 17, iss. 10, pp. 2333. (SCI Journal, Impact Factor = 3.014, Ranking =18/94 (0.191), Optics, Ranking = 16/61 (0.262), Instrument and Instrumentation, MOST 105-2923-M-009-006, 105-2634-F-009-002, 106-2221-E-009-089 and 106-2218-E-009-011, 105-2633-B-009-003)
56. Trong-Hieu Tran, Hsuan-Wen Peng, Paul C.-P. Chao*, Jing-Wen Hsieh, 2017, “A Low-ppm Digitally Controlled Crystal Oscillator Compensated by a New 0.19 mm2 Time-Domain Temperature Sensor,” IEEE Sensors Journal, vol. 17, iss. 1, pp. 51 - 62. (SCI Journal, Impact Factor = 2.512, Ranking = 12/58 (0.207), Instruments & Instrumentation, MOST 104-2923-M-009-002-, 105-2623-E-009-009-D and 105-2633-B-009-003)
57. Kuo-Yu Chou, Paul C.-P. Chao*, Chuan-Xin Chen, Chang-Xian Wu, 2017, “Modeling and Analysis of Touch on Flexible Ultra-Thin Touch Panels for AMOLED Displays Employing Finite Element Method,” Microsystem Technologies, vol. 23, iss. 11, pp. 5211–5220. (SCI Journal, Impact Factor = 2.276, Ranking = 90/190(0.562), Physics, Applied).

專利

專書及專書論文:
1. 趙昌博,賴政良,“光機電伺服系統概論”,(教育部光機電中心補助撰寫),2005.
2. Y. Kang and Chang-Po Chao, “An Integration Method for Response Observation of Nonlinear Mechanical Systems Subjected to Double Excitations,” in the book of Applicable Mathematics: Its Perspectives and Challenges, Editor J. C. Misra, Narosa Publishing House, 2001, pp. 163-170.
3. Chang-Po Chao, June, 1997, “On the Nonlinear Dynamics of a rotating system attached with multiple centrifugal pendulum vibration absorbers,” Ph.D. Dissertation, Michigan State University.
4. Chang-Po Chao, August, 1993, “Modeling a Radio Control Scale Helicopter for Robust Control Design,” Master Thesis, Michigan State University.


技術報告及其他:
1. Steven W. Shaw and Chang-Po Chao, March, 20, 1996, “Estimation of the Required Absorber Inertia for Use on I3 Diesel Engine,” submitted to Ford Motor Company in Dearborn.
2. 趙昌博,“光碟機主動式減振裝置”,經濟部科技研究發展專案計畫成果報告。
3. 趙昌博,“軌道車輛的動力分析及電腦模擬系統之建立”, 行政院國家科學委員會補助專題研究計畫成果報告,NSC89-2212-E-161-003。
4. 趙昌博,“高速軌道車輛系統轉向架設計與系統鑑別”, 行政院國家科學委員會補助專題研究計畫成果報告,NSC89-2218-E-033-024。
5. 趙昌博,“六軸工具機伺服控制系統開發”, 行政院國家科學委員會補助專題研究計畫成果報告,NSC 90-2212-E033-010。
6. 趙昌博,“光碟機主動式減振裝置”,工研院光電所結案報告。
7. 趙昌博,“二維影像處理技術應用在精密齒型量測上之研究”,中科院結案報告。
8. 趙昌博,“顯微干涉技術”,工研院量測中心結案報告。
9. 趙昌博,“子計畫二:創新半主動式自動平衡裝置之設計分析與驗證 (1/3)”, 行政院國家科學委員會補助專題研究計畫進度報告,NSC 91-2212-E-033-004。
10. 趙昌博,“薄殼電子產品撞擊之模擬與分析”, 行政院國家科學委員會補助專題研究計畫成果報告,NSC 91-2622-E-033-014。
11. 趙昌博,“超高解析度致動器之控制系統設計”,工研院光電所結案報告。
12. 趙昌博,“微小發電機應用系統研究”,工研院機械所結案報告。
13. 趙昌博,“子計畫二:創新半主動式自動平衡裝置之設計分析與驗證 (2/3)”, 行政院國家科學委員會補助專題研究計畫進度報告,NSC 92-2212-E-033-001。
14. 趙昌博,“微揚聲器之薄膜振動與音場分析”,侯門行結案報告。
15. 趙昌博,“微揚聲器之薄膜振動與音場分析”,行政院國家科學委員會補助專題研究計畫進度報告,NSC 92-2622-E-033-014。
16. 趙昌博,“微型麥克風設計與製作”, 經濟部工業局結案報告。
17. 趙昌博,“光學讀寫頭自動調變控制器”,工研院機械所結案報告。
18. 趙昌博,“子計畫二:創新半主動式自動平衡裝置之設計分析與驗證 (3/3)”, 行政院國家科學委員會補助專題研究計畫結案報告,NSC 93-2212-E-033-001。
19. 趙昌博,“LED光源微結構及其最佳化設計-直下式LED背光模組之解決方案”, 友達影像顯示專題競賽獎計畫結案報告。
20. 趙昌博,“咖啡機噪音分析與進給機構設計”,UCHI結案報告。
21. 趙昌博,“微揚聲器之機磁電動態建模、實驗驗證與優化”,行政院國家科學委員會補助專題研究計畫結案報告,NSC 94-2622-E-033-001-CC3。
22. 趙昌博,“微奈米系統特性分析、設計製造與光電檢測技術之建置與研究-子計畫三:具即時即時監測功能之奈微米光機電檢測及操作系統關鍵技術研究(1/3)”, 行政院國家科學委員會補助專題研究計畫結案報告,NSC 94-2212-E-033-001。
23. 趙昌博,“次世代光碟機關鍵技術研究--子計畫四:具參數自動調變功能之智慧型光學讀寫頭伺服系統研究與實現(1/3)”,行政院國家科學委員會補助專題研究計畫結案報告,NSC 94-2212-E-033-010。
24. 趙昌博,“微奈米系統特性分析、設計製造與光電檢測技術之建置與研究-子計畫三:具即時即時監測功能之奈微米光機電檢測及操作系統關鍵技術研究(2/3)”, 行政院國家科學委員會補助專題研究計畫結案報告,NSC 95-2212-E-033-001。
25. 趙昌博,“次世代光碟機關鍵技術研究--子計畫四:具參數自動調變功能之智慧型光學讀寫頭伺服系統研究與實現(2/3)”,行政院國家科學委員會補助專題研究計畫結案報告,NSC 95-2212-E-033-010。
26. 趙昌博,“LCD背光模組之LED光源結構設計與系統最佳化”,友達結案報告。
27. 趙昌博,“微奈米系統特性分析、設計製造與光電檢測技術之建置與研究-子計畫三:具即時即時監測功能之奈微米光機電檢測及操作系統關鍵技術研究(3/3)”, 行政院國家科學委員會補助專題研究計畫結案報告,NSC 96-2212-E-033-001。
28. 趙昌博,“次世代光碟機關鍵技術研究--子計畫四:具參數自動調變功能之智慧型光學讀寫頭伺服系統研究與實現(3/3)”,行政院國家科學委員會補助專題研究計畫結案報告,NSC 96-2212-E-033-010。

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