發(fā)布時間：2024-01-31 03:03

　　混合光伏-風力系統(tǒng)由太陽能光伏,風力發(fā)電機組,逆變器,電池和其他組件組合而成。一旦電力資源(風能和太陽能)充足,所產生的多余電能需由電池消納,直至電池完全充電。電池作為電能儲存單元是任何隔離式可再生能源系統(tǒng)中最關鍵的部分。電池管理直接決定系統(tǒng)運行的效率和優(yōu)化程度。因此,當可再生能源(太陽能和風能)不能滿足負載需求時,電池可以作為電源供電,直到電池能量耗盡�；旌咸柲躊V風微電網框架的運行依賴于單個組件。本文所建模型的混合動力系統(tǒng)由于其互補性而成為風光互補系統(tǒng)。該系統(tǒng)主要由太陽能和風力發(fā)電機組,蓄電池和電力電子轉換器組成。當太陽能和風力發(fā)電機組的輸出超過負荷需求時,多余的能量儲存在電池中,以便在發(fā)電量不滿足負荷需求時使用。因此,電池充放電控制對于提高系統(tǒng)效率和降低成本具有十分重要的意義。建模系統(tǒng)以約3KW的風力和1KW的太陽能作為可再生能源。為了能夠從每個部件獲得最佳輸出,首先我們對單個部件進行建模,通過評估它們的組合,以滿足所需的可靠性。本研究提出了一種基于模糊邏輯控制器的智能電池能量管理系統(tǒng),選擇三角隸屬函數(shù)來配置模糊邏輯控制器。這種基于控制器的電池管理框架專為有效的電力使用而設計。...

【文章頁數(shù)】：72 頁

【學位級別】：碩士

【文章目錄】：
Abstract
摘要
Chapter 1 Introduction to Microgrid and Energy Management System
    1.1 Microgrid Background
    1.2 Photovoltaic
    1.3 Wind Farm
    1.4 Energy Storage System
    1.5 Technical Challenges in Microgrid
    1.6 Management Aspects of Microgrid
    1.7 Demand Response and Demand-Side Management
    1.8 Home Energy Management System
    1.9 Energy Management with SCADA
    1.10 Supporting Infrastructure
        1.10.1 Smart Meter System
        1.10.2 Advanced Metering Infrastructure (AMI)
            1.10.2.1 Smart Meters
            1.10.2.2 Communication Infrastructure
            1.10.2.3 Home Area Networks (HAN)
    1.11 General Problem Statement
Chapter 2 Energy Management Strategies in Microgrid
    2.1 Hierarchical Framework for the Development and Operation of a Microgrid
    2.2 Energy Management Strategic Level
    2.3 Power Management Level and Local Controllers
    2.4 Techniques Used In Energy Management of Microgrid
    2.5 Bringing Intelligence to Energy Management
        2.5.1 Renewables Management
        2.5.2 Demand Management
        2.5.3 Infrastructure Management
    2.6 Technologies Enabling Intelligent Energy Management
    2.7 Artificial Intelligence using Fuzzy Logic
        2.7.1 Fuzzy Expert Systems
        2.7.2 Rule-Based Expert Systems
        2.7.3 Fuzzy Set Theory
Chapter 3 Simulations and Results
    3.1 Introduction
    3.2 Block Diagram of Proposed Hybrid Wind Solar Hybrid Microgrid Model
    3.3 Theory and Design
        3.3.1 Wind Power System Modeling
        3.3.2 Photovoltaic System Modeling
        3.3.3 The Battery Storage Modeling
        3.3.4 Dynamic Load
        3.3.5 Modelling of Proposed Wind PV Hybrid System in Matlab / Simulink
    3.4 Energy Management System
        3.4.1 Energy Management of Battery Using Fuzzy Logic Controller
        3.4.2 Energy Management of PV Using MPPT
    3.5 Results
Chapter 4 Conclusion and Future Work
    4.1 Conclusion
    4.2 Future Work
References
List of Tables
List of Figures
Acknowledgements



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