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研究生: 郭禹晨
Kuo, Yu-Chen
論文名稱: 考量磁飽和效應之兩相混合式步進馬達磁場調制模型
Field Modulation Model for Two-phase Hybrid Stepping Motors Considering Magnetic Saturation
指導教授: 謝旻甫
Hsieh, Min-Fu
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: 2024
畢業學年度: 112
語文別: 中文
論文頁數: 150
中文關鍵詞: 混合式步進馬達磁飽和氣隙磁場調制理論轉矩模型
外文關鍵詞: hybrid stepping motor (HSM), magnetic saturation, airgap field modulation theory, torque analysis model
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  • 本論文針對兩相混合式步進馬達建立數學模型,提出一種新型磁飽和理論,其能夠對非線性之磁飽和現象進行建模,以應對步進馬達中難以忽略之磁飽和問題。同時,本文彙整通用氣隙磁場調制理論,一方面將眾多相關理論之文獻歸納整理得其建立流程;一方面則將該理論延伸應用至三維結構之混合式步進馬達。最終結合所提出之新型磁飽和理論,建立一種能夠代表兩相混合式步進馬達之磁場調制模型。
    文中利用ANSYS模擬軟體進行有限元素分析。在混合式步進馬達之三維模擬中,為確保該模擬之有效性,需確認氣隙網格之設定足夠使結果收斂。最終,模擬得出氣隙磁通密度、磁交鏈、電動勢、電感與總轉矩;並將模擬結果與所提出之數學模型相比對,其結果顯示所提出之數學模型對於反映磁飽和影響具有相當之準確性。

    This thesis establishes a mathematical model for a two-phase hybrid stepper motor and presents a novel magnetic saturation theory capable of modeling the nonlinear magnetic saturation phenomenon, which is significant in the context of stepper motors. Furthermore, this work consolidates general theories of air-gap magnetic field modulation, synthesizing existing literature to create a structured development process. Additionally, the theory is extended to apply to three-dimensional structures of hybrid stepper motors. Ultimately, by integrating the proposed novel magnetic saturation theory, a magnetic field modulation model representing the two-phase hybrid stepper motor is developed.
    The thesis employs ANSYS simulation software for finite element analysis. In the three-dimensional simulation of the hybrid stepper motor, the validity of the simulation is ensured by confirming that the air-gap mesh settings are sufficiently refined to achieve convergence of results. The simulation yields data on air-gap magnetic flux density, magnetic cross-linkage, electromotive force, inductance, and total torque. A comparison of the simulation results with the proposed mathematical model demonstrates that the model accurately reflects the effects of magnetic saturation.

    摘要 I 目錄 XIX 圖目錄 XXIV 表目錄 XXVIII 符號表 XXX 第一章 緒論 1 1.1 研究背景 1 1.1.1 步進馬達產業應用背景 1 1.1.2 步進馬達特點 3 1.2 文獻回顧 5 1.2.1 傳統數學模型 5 1.2.2 震動問題 6 1.2.3 磁飽和問題 9 1.2.4 通用氣隙磁場調制理論 10 1.3 研究動機與目的 12 1.4 論文架構 13 第二章 混合式步進馬達介紹與通用氣隙磁場調制理論 14 2.1 混合式步進馬達結構介紹 14 2.2 混合式步進馬達運作原理與驅動方式 17 2.2.1 混合式步進馬達運作原理 17 2.2.2 全步驅動與半步驅動 19 2.2.3 微步進驅動 20 2.3 傳統混合式步進馬達數學模型 21 2.4 兩相混合式步進馬達磁路模型 23 2.5 通用氣隙磁場調制理論彙整 25 2.5.1通用氣隙磁場調制理論介紹與假設25 2.5.2 繞組函數 27 2.5.3 磁動勢源 29 2.5.4 調制子 30 2.5.5 氣隙磁通密度、磁交鏈與電動勢 32 2.5.6 電感 34 2.5.7 轉矩產生 36 第三章 新型磁飽和理論與磁場調制模型 37 3.1 新型磁飽和理論與磁場調制模型假設 40 3.2 步進馬達原型與參數定義 42 3.3 繞組函數、磁動勢源、轉定子調制子與氣隙磁通密度 45 3.3.1 繞組函數 45 3.3.2 磁動勢源 46 3.3.3 轉子調制子 47 3.3.4 定子調制子 48 3.3.5 氣隙磁通密度 49 3.4 新型磁飽和理論 50 3.4.1 理論推導 50 3.4.2 磁動勢飽和修正曲線 53 3.5 磁交鏈、電動勢、電感 55 3.5.1 磁交鏈與電動勢 55 3.5.2 電感 58 3.6 轉矩產生 60 3.6.1 電磁轉矩 60 3.6.2 磁阻轉矩 60 3.6.3 頓轉轉矩 61 3.6.4 磁電轉矩 62 3.6.5 小結 63 第四章 模擬與實驗 64 4.1 有限元素模擬驗證 64 4.1.1 假設驗證 65 4.1.2 氣隙磁通密度 69 4.1.3 磁交鏈與電動勢 74 4.1.4 電感 80 4.1.5 頓轉轉矩 84 4.1.6 電磁轉矩、磁阻轉矩及磁電轉矩 88 4.2 實驗結果比較 93 4.2.1 反電動勢 93 4.2.2 無激磁電感 94 4.2.3 握持轉矩 96 4.3 模擬與驗證結論 99 第五章 結論與未來展望 100 5.1 結論 100 5.2 未來展望 101 參考文獻 103 附錄 107

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