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微电网的优化能源管理、仿真建模和控制保护

摘要第5-8页
Abstract第8-11页
Nomenclature第22-27页
1. Introduction第27-48页
    1.1. Research Background第27-38页
        1.1.1. The Concept of Microgrids第28-31页
        1.1.2. Drivers Behind Microgrids第31-32页
        1.1.3. Benefits and Challenges第32-33页
        1.1.4. Microgrid Types and Applications第33-34页
        1.1.5. Microgrids Under Development第34-38页
        1.1.6. Microgrid Under Study第38页
    1.2. Research Problem第38-40页
    1.3. Scope and Objectives of the Thesis第40-41页
    1.4. Significance of the Thesis第41页
    1.5. Outline of the Thesis第41-43页
    1.6. Summary of Related Publications第43-48页
2. Literature Review第48-65页
    2.1. Optimal Energy Management for Microgrids第48-56页
    2.2. Simulation Modeling and Control of Microgrids第56-62页
    2.3. Protection of Microgrids第62-65页
3. Optimal Energy Management for Microgrids第65-117页
    3.1. Introduction第65-66页
    3.2. Optimization Overview第66-68页
    3.3. Optimization Techniques第68-69页
    3.4. Proposed Optimization Model第69-70页
    3.5. Load Demand and Renewable Energy Forecasting第70-100页
        3.5.1. Load Demand Forecasting第71-78页
            3.5.1.1. Proposed Configuration for ICA-ANN第71-76页
                3.5.1.1.1. Imperialistic Competitive Algorithm(ICA)第71-74页
                3.5.1.1.2. Artificial Neural Network (ANN)第74-76页
            3.5.1.2. Case Study and Simulation Results第76-78页
        3.5.2. Wind Power Forecasting第78-90页
            3.5.2.1. Proposed Wind Power Forecasting Model第79-81页
            3.5.2.2. Proposed Structure for PSO-ANFIS第81-88页
                3.5.2.2.1. Particle Swarm Optimization第81-83页
                3.5.2.2.2. Adaptive Neuro-Fuzzy Inference System第83-86页
                3.5.2.2.3. Proposed Hybrid Forecasting Model第86-88页
            3.5.2.3. Case Study and Simulation Results第88-90页
        3.5.3. PV Solar Power Forecasting第90-100页
            3.5.3.1. Proposed PV Solar Power Forecasting Model第91-92页
            3.5.3.2. Proposed Architecture for Wavelet-PSO-SVM第92-98页
                3.5.3.2.1. Wavelet Transform第92-93页
                3.5.3.2.2. Support Vector Machine第93-96页
                3.5.3.2.3. Proposed Hybrid Forecasting Model第96-98页
            3.5.3.3. Case Study and Simulation Results第98-100页
    3.6. Proposed Objective Functions and Constraints第100-104页
        3.6.1. Scenario 1第100-103页
        3.6.2. Scenario 2第103-104页
        3.6.3. Scenario 3第104页
    3.7. Proposed Optimization Solution Method第104-109页
    3.8. Results and Discussions第109-116页
        3.8.1. Scenario 1第111-113页
        3.8.2. Scenarios 2 and 3第113-116页
    3.9. Conclusion第116-117页
4. Simulation Modeling and Control of Microgrids第117-161页
    4.1. Introduction第117-118页
    4.2. Modeling and Control of Individual Components第118-155页
        4.2.1. Modeling and Control of Photovoltaic Solar System第118-129页
            4.2.1.1. PV Array Model第119-122页
            4.2.1.2. DC Link Capacitor Model第122-125页
            4.2.1.3. DC-DC Converter Model第125-127页
                4.2.1.3.1. Maximum Power Point Tracking (MPPT)第125-126页
                4.2.1.3.2. DC-DC Converter Control第126-127页
            4.2.1.4. Inverter Model第127-129页
        4.2.2. Modeling and Control of Wind Energy System第129-138页
            4.2.2.1. Wind Turbine Model第130-135页
            4.2.2.2. PMSG Model第135-137页
            4.2.2.3. AC-DC Converter Model第137-138页
            4.2.2.4. DC Link Capacitor Model第138页
            4.2.2.5. DC-AC Converter Model第138页
        4.2.3. Modeling and Control of Microturbine Generation System第138-148页
            4.2.3.1. Speed and Acceleration Control第141-142页
            4.2.3.2. Fuel Flow Control第142-143页
            4.2.3.3. Compressor-Turbine第143-144页
            4.2.3.4. Temperature Control第144-145页
            4.2.3.5. High Speed Generator-PMSG第145页
            4.2.3.6. AC-DC Converter第145-146页
            4.2.3.7. DC Link Capacitor第146页
            4.2.3.8. DC-AC Converter第146-148页
        4.2.4. Modeling and Control of Diesel Generation System第148-150页
            4.2.4.1. Speed Governor第149页
            4.2.4.2. Diesel Engine第149-150页
            4.2.4.3. Synchronous Generator第150页
        4.2.5. Modeling and Control of Energy Storage System第150-153页
            4.2.5.1. DC Voltage Source第151页
            4.2.5.2. DC Link Capacitor第151页
            4.2.5.3. DC-AC Converter第151-153页
        4.2.6. Modeling of Other Basic Components第153-155页
            4.2.6.1. AC Filter第153-154页
            4.2.6.2. Transformer第154-155页
            4.2.6.3. Distribution line第155页
            4.2.6.4. Load第155页
            4.2.6.5. Main Utility Grid第155页
    4.3. Modeling and Control of the Complete Microgrid System第155-156页
    4.4. Simulation Results and Discussions第156-159页
    4.5. Conclusion第159-161页
5. Protection of Microgrids第161-186页
    5.1. Introduction第161-162页
    5.2. Proposed Relay Structure第162-170页
        5.2.1. Disturbance Voltage Based Solid Fault Detection第165-168页
            5.2.1.1. Basic Principle of Disturbance Voltage Detection第165-166页
            5.2.1.2. Symmetrical Fault Detection第166-167页
            5.2.1.3. Unsymmetrical Fault Detection第167-168页
        5.2.2. High Impedance Fault (HIF) Detection第168-169页
        5.2.3. Directional Decision Making第169-170页
    5.3. Proposed Protection Strategy第170-172页
    5.4. Case Study and Simulation Results第172-184页
    5.5. Conclusion第184-186页
6. Conclusions and Future Works第186-190页
    6.1. Conclusions第186-188页
    6.2. Future Works第188-190页
References第190-207页
List of Publications第207-211页
Acknowledgments第211-212页
Resume第212-221页

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