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研究生: 陳寧賢
Ning-Xian Chen
論文名稱: 鋰電池模組內外平衡之設計與實現
Design and Implementation of Cell and Module Balancing for Lithium Modules
指導教授: 林長華
Chang-Hua Lin
口試委員: 劉添華
Tian-Hua Liu
白凱仁
Kai-Jun Pai
王見銘
Chien-Ming Wang
學位類別: 碩士
Master
系所名稱: 電資學院 - 電機工程系
Department of Electrical Engineering
論文出版年: 2020
畢業學年度: 108
語文別: 中文
論文頁數: 118
中文關鍵詞: 主動式平衡電池管理系統主動箝位返馳式轉換器
外文關鍵詞: Active Balancing, Battery Management System, Active-clamp Flyback converter
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本文研製一組兼具電池芯及模組平衡之電池管理系統。所提之系統以電池管理系統及電池模組平衡電路所構成,應用於高串數電池系統,可方便進行模組化疊層,其中電池管理系統,可有效地將模組內電池芯進行監測、平衡及保護,並採用一個雙向返馳式轉換器作為電芯平衡電路,結合光繼電器陣列以達到主動式電量平衡之效果。其次,加入電池模組平衡系統,透過一個主動箝位返馳式轉換器作為模組平衡電路,再搭配MOSFET開關矩陣,以解決模組疊層後,電池模組間之不平衡問題,使得系統電路具雙層保護之效果。此外,利用數位控制器結合Modbus界面及RS485通訊協定作為電路間之通訊功能,並透過人機介面可方便取得電池模組之資訊。最後,實際透過人機介面擷取各模組之電池資訊,並運用所提系統進行實測,以驗證此系統之效能及可行性。


This thesis proposes a battery management system with cell balancing and module balancing function. The proposed system, which consists of a battery management system and a battery module balancing circuit, is applied to a high-cell-count battery system for easy modular stacking. The implemented battery management system has functions of detecting, cell balancing, and protecting the battery module. To realize the active cell balancing function, a bidirectional flyback converter with photorelay array is employed as the balancing circuit. In addition, the proposed system overcomes the imbalance problem between the battery modules by an Active-clamp Flyback converter with the MOSFET array to ensure the battery pack with dual protection. Furthermore, the Modbus interface and RS485 communication protocol are integrated by the digital controller to achieve the communication function among the whole system. All the information of the battery pack can be also easily obtained through the user interface. Finally, the proposed system is used to verify its performances and feasibility.

摘要… I Abstract II 誌謝… III 目錄… IV 圖目錄 VII 表目錄 X 第一章 緒論 1 1.1 研究背景 1 1.2 文獻探討 3 1.3 論文架構 5 第二章 電池規格及特性介紹 7 2.1 二次電池之介紹 7 2.2 本文使用之電池規格 9 2.3 電池之充放電特性 11 2.4 電池芯與電池模組發生不平衡之原因與對策 15 第三章 所提平衡架構與現有技術之差異 18 3.1 常見平衡方式簡介 18 3.1.1 被動式平衡 20 3.1.2 主動式平衡 21 3.2 常見之BMS拓樸簡介 22 3.2.1 集中型BMS拓樸 23 3.2.2 分散型BMS拓樸 24 3.3 所提之雙集中型BMS拓樸 25 3.4 本文引用之內部平衡電路 27 3.4.1 內部平衡電路之架構 29 3.4.2 內部平衡電路之平衡動作 30 3.4.3 內部平衡電路之平衡策略 32 3.5 本文所提之外部平衡電路 36 3.6 外部平衡電路之模式分析 40 3.7 外部平衡電路之平衡決策 52 3.8 所提之雙集中型平衡架構之優勢 56 3.8.1 雙集中型BMS拓樸在高串數電池系統下之優勢: 59 第四章 電路設計與數位控制之實現 60 4.1 外部平衡電路之設計準則 60 4.1.1 變壓器圈數比n之計算 60 4.1.2 激磁電感 之設計 61 4.1.3 箝位電容 之選用 62 4.1.4 輸出電容 之選用 63 4.2 外部BMS之監測電路及回授控制 63 4.2.1 電池模組之電壓回授 64 4.2.2 平衡電流之電流回授 67 4.2.3 總輸入/輸出之電流監測及保護開關 70 4.3 MOSFET開關矩陣 73 4.4 數位控制器之介紹 74 4.4.1 數位控制晶片dsPIC33FJ64GS606 74 4.4.2 數位控制器與系統之整合 78 4.5 系統保護功能 80 4.6 通訊功能 81 4.6.1 通用非同步收發傳輸器 82 4.6.2 Modbus通訊協定 83 4.7 系統之人機介面 85 第五章 電路模擬與實測結果 87 5.1 外部平衡電路波形實測與模擬 90 5.1.1 零電壓切換(ZVS)與零電流切換(ZCS)之驗證 90 5.2 外部平衡之電芯模組平衡功能實測 100 5.3 整體系統之平衡實測 104 第六章 結論與未來展望 113 6.1 結論 113 6.2 未來展望 114 參考文獻 115

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