簡易檢索 / 詳目顯示

回結果列表
研究生： 周多諾
Heri Juwantono
論文名稱： 低功率空心陰極綜合微離子推進器的研發
Development of Integrated micro-Ion Thrusters with Low Power Hollow Cathode
指導教授： 李約亨
Li, Yueh-Heng
學位類別： 碩士
Master
系所名稱： 工學院 - 能源工程國際碩博士學位學程
International Master/Doctoral Degree Program on Energy Engineering
論文出版年： 2023
畢業學年度： 111
語文別： 英文
論文頁數： 91
外文關鍵詞： Radio Frequency Ion Thruster, Glow Discharge Hollow Cathode, Electric Propulsion, Neutralizer, Inductively Coupled Plasma
ORCID： https://orcid.org/0000-0002-1450-0052
ResearchGate： https://www.researchgate.net/profile/Heri-Juwantono
相關次數： 點閱：75  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
    • Abstract i Acknowledgment ii Table of Content iv List of Table vii List of Figure viii Nomenclature xi Chapter 1 - Introduction 1 1-1 Overview 1 1-2 Ion Thrusters 2 1-2-1 Kaufman Ion Thrusters 2 1-2-2 Radio Frequency Ion Thrusters 4 1-2-3 Electro Cyclotron Resonance (ECR) Ion Thruster 9 1-3 Neutralizer 11 1-3-1 External Heater Hollow Cathode 13 1-3-2 Heater less Hollow Cathode 15 1-3-3 Inductively Coupled Plasma Hollow Cathode 16 1-3-3 Glow Discharge Low Power Hollow Cathode 19 1-4 Motivation and Purpose 21 1-5 Objectives 22 1-6 Thesis Outline 23 Chapter 2 - Theory 24 2-1 Overview 24 2-2 Glow Discharge Hollow Cathode 24 2-3 Radio Frequency Ion Thruster 31 2-3-1 Discharge chamber 33 2-3-2 Discharge Pressure 37 2-3-3 Ion Grids 40 2-3-4 Gas Distributor 44 2-4 Thruster fundamental parameters 45 2-4-1 Thrust 45 2-4-2 Specific impulse (Isp) 47 Chapter 3 - Experimental Setup and Methodology 48 3-1 Overview 48 3-2 Glow Discharge Hollow Cathode Design 48 3-3 RF Ion Thruster 51 3-4 Experimental set up 53 Chapter 4 - Experiment Result 57 4-1 Overview 57 4-2 Glow Discharge Hollow Cathode Firing Test 57 4-3 RF Ion Thruster 65 Chapter 5 - Discussion and Future Work 69 5-1 Discussion 69 5-2 Future work 69 References 71 Appendix 75 Glow Discharge Neutralizer Mechanical Drawing 75 RFIT Mechanical Drawing 81

    1. Dean C. Rovang and Wilburt Paul J., Ion Extraction Capabilities of Two-Grid Accelerator Systems. Journal Propulsion, 1985. VOL. 1,NO. 3.
    2. Feili D., Loeb H.W., Schartner K.H., Weis St., Kirmse D., Meyer B.K., Kilinger R., Mueller H., and Davina M.D.C, Performance mapping of new gN-RITs at Giessen, in 29 th International Electric Propulsion Conference. 2005: New Jersey.
    3. Walther R. J., Giessel J. E., Pinks W. F., Rothermel K. H., Trojan F. M., and Loeb H. W., Scaling laws of radio-frequency ion thrusters, in AIAA Paper. 1975, AIAA: Los Angeles.
    4. Michael Tsay, John Frongillo, Joshua Model, Jurg Zwahlen, and Lenny Paritsky, Maturation of Iodine-Fueled BIT-3 RF Ion Thruster and RF Neutralizer. American Institute of Aeronautics and Astronautics, 2016.
    5. Michael Tsay, Joshua Model, Carl Barchoft, John Frongillo, Jurg Zwahlen, and Charlie Feng, Integrated Testing of Iodine BIT-3 RF Ion Propulsion System for 6U CubeSat Applications, in 35th International Electric Propulsion Conference. 2017, IEPC: Georgia Institute of Technology.
    6. Dan M. Goebel and Katz Ira, Fundamentals of Electric Propulsion: Ion and Hall Thrusters. 2008.
    7. Kaufman Harold R., Technology of Electron-Bombardment Ion Thrusters. 1975.
    8. Aston G. and Harold R. Kaufman, The Ion- Optics ofa Two-Grid Electron-Bombardment Thruster, in AIAA International Electric Propulsion Conference. 1976, American Institute of Aeronautics and Astronautics: Key Biscayne, Florida.
    9. Trojan F., Bussweiler K., Lang H., and Loeb H., Development of the radio frequency microthruster RIT 4, in 9th Electric Propulsion Conference. 1972.
    10. Bartoli C., Loeb, H.W., Bassner, H. Valentian, D. Baiocchi, G. Atzei, A., Electric Propulsion in Europe. Acta Astronautica, 1986. 0094-5765/86.
    11. Yusuke Yamashita, Kana Hattori, Ryudo Tsukizaki, Satoshi Hosoda, and Nishiyama Kazutaka, Experimental Prediction of Performance Degradation During Space Operation in Microwave Discharge Ion Thruster μ10. Journal of Evolving Space Activities, 2022. Vol. 1, Article No. 1, 2023.
    12. Shoji Kitamura, Katsuhiro Miyazaki, Yukio Hayakawa, Hideki Yoshiba, and Akai Kouseki, Performance improvement of 150-mN xenon ion thrusters. Acta Astronautica, 2003. 52: p. 11-20.
    13. Basner H., Leiter H. J., Loeb H. W., and Schartner K. H. The Development of Radiofrequency-Ion-Thrusters at Giessen University-Progress in Space Propulsion by Cooperation between Industry and University. in Academic and Industrial Cooperastion in Space Research. 1998. Vienna: Europian Space Agency.
    14. Feili D., Loeb H.W., Schartner K.H., Weis St., Kirmse D., Meyer B.K., Kilinger R., and Mueller H.Davina, M.D.C, Performance mapping of new gN-RITs at Giessen, in 29 th International Electric Propulsion Conference. 2005: New Jersey.
    15. Groh K. H. and Loeb H. W., State-of-the-art of radio-frequency ion thrusters. Journal of Propulsion and Power, 1991. 7(4): p. 573-579.
    16. Edwin Beller, Christian Rosseler, Uwe Probst, Rainer Thueringer, and Volkmar Chris, A radio-frequency generator for ion thruster based on a Class-E power circuit. Journal of Electric Propulsion, 2022.
    17. Dietz Patrick, Reeh Andreas, Keil Konstantin, Holste Kristof, Probst Uwe, Klar Peter J., and Volkmar Chris, Global models for radio-frequency ion thrusters. EPJ Techniques and Instrumentation, 2021. 8(1).
    18. Couch Brian D., Busek 1cm Micro Radio-Frequency Ion Thruster Empirical Performance Determination, in Department of Aeronautics and Astronautics. 2017, Air Force Institute of Technology: Ohio.
    19. Muilenburg Cl, Empirical Determination of Performance Characteristics for Busek 1cm Micro Radio-Frequency Ion Propulsion System, in Department of Aeronautics and Astronautics. 2016, Air Force Institute of Technology: Ohio.
    20. Loeb H.W. , Schartner K. H., Meyer B.K., Feili D., Weis St., and Kirmse D. , Forty Years of Giessen EP-Activities and the Recent RIT-Microthruster Development, in 29th International Electric Propulsion Conference. 2005, IEPC: Giessen University, Germany.
    21. Group Ariene. Propulsion System. 2022-2023 [cited 2023 7 July]; Available from: https://www.space-propulsion.com/brochures/electric-propulsion/electric-propulsion-thrusters.pdf.
    22. Busek. RF Ion Thrusters. 2023 [cited 2023 7 July]; Available from: https://www.busek.com/rf-ion-thrusters.
    23. Ta-Yen Huang. Development of a Miniature Radio-Frequency Ion Thruster with Inductively Coupled Plasma (ICP) Source for CubeSat Propulsion, in Department of Aeronautics and Astronautics. 2021, National Cheng-Kung University: Taiwan.
    24. Yue-Heng Li., Ta-Yen Huang., Mitchell M Shen., and Yi-Chien Chen., Development of Miniature Radio Frequency Ion. Journal of Aeronautics, Astronautics and Aviation, 2023.
    25. Yi-Chien Chen. Advanched Optimization of Ion Propulsion via Impedance Matching & Surrogate Modeling, in International Master Degree Program on Energy Engineering. 2022, National Cheng-Kung University: Taiwan.
    26. Shengfeng Meng, Ximing Zhu, Yongqi Kang, Yanfei Wang, Zhongx Ning, and Yu Daren, Investigation on the radial distribution of electron density in a miniaturized ECR ion thruster of wide-range operations. Vacuum, 2022.
    27. Kazutaka Nishiyama, Satoshi Hosoda, Kazuma Ueno, Ryudo Tsukizaki, and Kuninaka Hitoshi, Development and Testing of the Hayabusa2 Ion Engine System. Trans. JSAS Aerospace Tech. Japan, 2016.
    28. Agency Japanese Aerospace Exploration. The potential of Ion Engines. 2003 [cited 2023 23 May]; Available from: https://global.jaxa.jp/article/special/hayabusa/kuninaka_e.html.
    29. Yasuhiro Toyoda, Kazutaka Nishiyama, Satoshi Hosoda, Yukio Shimizu, and Hitoshi Kuninaka, An Ion Machined Accelerator Grid for the ECR Ion Thruster μ20. American Institute of Aeronautics and Astronautics, 2008.
    30. Bretti Michael A, Progress and Developments of Ultra-Compact 10 Watt Class Adamantane Fueled Hall Thrusters for Picosatellites, in 37th International Electric Propulsion Conference. 2022, Electric Rocket Propulsion Society: Massachusetts Institute of Technology, Cambridge, MA USA.
    31. Dan M. Goebel, Giulia Beccati, Ioannis G. Mikellides, and Ortega Alejandro Lopez, Plasma Hollow Cathodes. Journal of Applied Physics, 2021.
    32. Giulia Becatti, Dan M. Goebel, Camilla V. Yoke, Alejandro L. Ortega, and Mikellides Ioannis G., High Current Hollow Cathode for the X3 100-kW Class Nested Hall Thruster, in 36th International Electric Propulsion Conference. 2019, IEPC: University of Vienna, Austia.
    33. Alexander Daykin-Iliopoulos, Igor Golosnoy, and Gabriel Steve, Thermal Profile of a Lanthanum Hexaboride Heaterless Hollow Cathode, in 35th International Electric Propulsion Conference. 2017, IEPC: Georgia Institute of Technology.
    34. Hatakeyama. Tomoyuki, Irie. Masatoshi, Watanabe. Hiroki, Okutsu. Aasami, Aoyagi. Junichiro, and Takegahara. Haruki, Preliminary Study on Radio Frequency Neutralizer for Ion Engine, in 30th International Electric Propulsion Conference. 2007: Florence, Italy.
    35. Patrick Dietz, Felix Becker, Konstantin Keil, Kristof Holste, and Klar Peter J., Test of an iodine fed RF-neutralizer, in 36th International Electric Propulsion Conference. 2019, IEPC: University of Vienna, Austria.
    36. Jahanbakhsh S., Satir M., and Celik M., Study of electron current extraction from a radio frequency plasma cathode designed as a neutralizer for ion source applications. Rev Sci Instrum, 2016. 87(2): p. 02B922.
    37. Radmilovi´C M Radjenovi´C, Radjenovi´C B. , Klas M. , Bojarov A. , and MatejˇCik S. , The Breakdown Mechanisms in Electrical Discharges: The Role of The Field Emission Effect in Direct Current Discharges in Micro gaps. acta physica slovaca, 2014. vol. 63 No. 3: p. 105 – 205.
    38. Mohammed K. Khalaf, Oday A. Hammadi, and Firas J. Kadhim, Current-Voltage Characteristics of DC Plasma Discharges Employed in Sputtering Techniques. Iraqi Journal of Applied Physics, 2016. Vol. 12, No. 3.
    39. Feili D. , Lotz B. , Bonnet St. , Meyer B.K., and Loeb H.W. , μNRIT-2.5 - A New Optimized Microthruster Of Giessen University. American Institute of Aeronautics and Astronautics, 2009.
    40. Tsay Michael Meng-Tsuan, Numerical Modeling of a Radio Frequency Micro Ion Thruster, in Departement of Aeronautics and Astronautics. 2006, Massachusets Institute of Technology: Massachusets.
    41. Ugur Kokal, Nazli Turan, Murat Celik, and Kurt Huseyin, Design Improvements and Experimental Measurements of BURFIT-80 RF Ion Thruster. american Institute of Aeronautics and Astronautics, 2017.
    42. Reid Bryan Michael, The Influence of Neutral Flow Rate in the Operation of Hall Thrusters, in Aerospace Engineering. 2009, University of Michigan: Michigan.

    無法下載圖示 校內：2028-08-22公開
    校外：2028-08-22公開
    電子論文尚未授權公開，紙本請查館藏目錄
    QR CODE