Renewable Energy and Future Power Systems (Energy Systems in Electrical Engineering)

✍ Scribed by Vinod Kumar Singh (editor), Akash Kumar Bhoi (editor), Anurag Saxena (editor), Ahmed F. Zobaa (editor), Sandeep Biswal (editor)

• Publisher: Springer
• Year: 2021
• Tongue: English
• Leaves: 271
• Category: Library

✦ Synopsis

This book discusses advanced technologies for applications in renewable energy and power systems. The topics covered include neural network applications in power electronics, deep learning applications in power systems, design and simulation of multilevel inverters, solid state transformers, neural network applications for fault detection in power electronics, etc. The book also discusses the important role of artificial intelligence in power systems, and machine learning for renewable energy. This book will be of interest to researchers, professionals, and technocrats looking at power systems, power distribution, and grid operations.

✦ Table of Contents

Preface
Contents
About the Editors
Renewable Energy and Economic Dispatch Integration Within the Honduras Electricity Market
1 Introduction
2 Theoretical Background
2.1 Honduran Electrical System
2.2 Guatemalan Dispatch Center
2.3 El Salvador Dispatch Center
2.4 Panamanian Dispatch Center
2.5 Economic Dispatch Model
2.6 Optimization Methods
3 Methodology
3.1 Data Acquisition
3.2 Equation Formulation with Economic Dispatch
4 Analysis and Results
4.1 Economic Dispatch
4.2 Per Unit System
4.3 Transmission Lines' Capacity Restrictions
4.4 Optimization Problem Statement
4.5 Data for GAMS Program
4.6 Simulation Results
5 Conclusions
References
Converter/Inverter Topologies for Standalone and Grid-Connected PV Systems
1 Introduction
1.1 Grid-Connected Solar PV
1.2 Standalone PV Systems
2 MPPT-Based DC-DC Converter Topologies
3 Inverter Topologies for PV System
3.1 String Inverter
3.2 Multi String Inverter
3.3 Central Inverter
3.4 Micro Inverter
3.5 Large and Medium Scale PV Inverters
3.6 Grid-Connected Transformer Less Inverters
3.7 Grid-Connected Isolated Inverters
3.8 Multistage Isolated Micro-Inverters
4 Grid Standards and Guidelines
5 Recent Advancements–Challenges and Discussion
6 Direction for Future Research
7 Summary/Conclusion
References
Mission Profile Oriented Reliability Evaluation of Grid-Connected PV Inverter Considering Panel Degradation and Uncertainties at Indian Location
1 Introduction
2 Reliability Evaluation of Grid-Connected PV Inverter
3 Results and Discussion
3.1 Reliability Evaluation of PV Inverter Without Degradation Rate
3.2 Reliability Evaluation of PV Inverter with Degradation Rate
3.3 Bx Lifetime Comparison
4 Conclusion
References
Performance Analysis of PI and PR Controller for a Single-Phase PV Grid System with Effective Active and Reactive Power Compensation
1 Introduction
2 Grid-Interconnected Network and MPPT Technique
2.1 PV Solar System
2.2 Incremental Conductance Method
3 Proposed System and Control Strategy
3.1 Proportional Integral Control
3.2 Proportional Resonant Control
4 Simulation Case Study
5 Conclusion
References
Design and Analysis of Fifth-Order Bi-Directional Charger with Vehicle to Grid Application
1 Introduction
1.1 Background
1.2 Bidirectional DC-DC Converter
1.3 Performance Indices
1.4 Review of Bidirectional Converter Topologies
2 Steady-State and Dynamic Analysis of the Proposed Bidirectional Charger
2.1 Mathematical Analysis of Charger
2.2 Mathematical Analysis of Discharger
2.3 Dynamic Analysis of the Proposed Bidirectional Converter
3 Design of Converter
3.1 Steady-State Performance of Converter
4 Compensator Design for Charger
5 Digital Compensator Design of Discharger
6 Conclusion
References
Photovoltaic Inverter Model in Simulink
1 Introduction
2 Circuit Topology and Devices
3 Device Protection and Calculations
3.1 Conduction Losses
3.2 Switching Losses
3.3 Thermal Characterization
4 Packaging Arrangement
5 Drive Circuit and Control
6 Discussion
7 Results and Conclusion
References
Smart Power Management System for Charging Plug-in Hybrid/Electric Vehicles Using Solar PV for Software Technology Park
1 Introduction
2 Location
3 Determination of Charger Specifications
4 Power Generated from the PV Modules
5 Module Selection
6 Determination of Parameters
6.1 Determination of Iph
6.2 Determination of Io
6.3 Determination of Rs and Rp
6.4 Methodology Used to Evaluate the Parameters (MATLAB and SIMULINK)
6.5 Evaluation of Number of Solar Cells Required
7 Battery Selection
8 Charge Controller
9 Row Spacing and Sizing
10 Simulated Results and Discussion
11 Project Cost Evaluation
11.1 Cost of Modules
11.2 Design Engineering and Management Cost
11.3 Installation Workforce Cost
11.4 Capacity Factor [21]
12 Conclusion
References
Enhancement of IEEE 802.11 Based Network Performance Using Combined Optimization of Parameters for Smart Grid Network
1 Introduction
2 Joint Optimization of IEEE 802.11 Parameters
2.1 RTS/CTS Parameter Optimization
2.2 EDCA Parameter Optimization
3 Results and Discussion
4 Conclusion
References
Wind Turbines in Energy Conversion System: Types & Techniques
1 Introduction
2 Wind Energy Conversion System
3 Wind Turbine System
4 Type I Wind Turbine
5 Type II Wind Turbine System
6 Type III Wind Turbine System
7 Type IV Wind Turbine System
8 DFIG Modeling
9 PMSG Modeling
10 Simulink Results
10.1 Type-I FSIG WTs Simulink Model and Results
10.2 Type-II WTs Simulink Results
10.3 Type-III DFIG WTs Simulink Model and Results
10.4 Type-IV DFIG WTs Simulink Model and Results
11 Discussion
12 Conclusion
References
Optimal Planning of Reactive Power in Power Transmission System Ensuring System Security Using Probabilistic-CSAJAYA
1 Introduction
1.1 Aims and Contribution
1.2 Paper Schemes
2 Establishment of Objective Function
2.1 System Constraints
2.2 Influence of Tap Settings
3 Approaches of Proposed Methodology
3.1 Detection of Candidate/Weak Nodes and Lines
3.2 Modeling of SVC
3.3 Application/Adaptation of Evolutionary Algorithms
4 Numerical Results and Discussion
4.1 System 1: IEEE 30 Bus System
4.2 System 2: Indian UPSEB (Utter Pradesh State Electricity Board) 75 Bus System
5 Conclusion
References
An Architectural and Control Overview of DC-Microgrid for Sustainable Remote Electrification
1 Introduction
2 Importance of Remote Electrification
3 Overview of Architecture
4 Simulation Setup
4.1 SPV System
4.2 Energy Storage System
4.3 AC-DC Converter Module
4.4 DC Load
5 Results and Discussion
5.1 Mode-I
5.2 Mode-II
5.3 Mode-III
6 Recent Trends in DcMG Research
6.1 Minimization of Effect of PV and Load Variation
6.2 Reduction of Ripple Current
6.3 Effective Battery Storage Management
6.4 Load Sharing and Circulating Current Reduction
6.5 Challenges in DcMG Protection
7 Conclusion
References