SMART GRIDS AND GREN ENERGY SYSTEMS Green energy and smart grids are two of the most important topics in the constantly emerging and changing energy and power industry. Books like this one keep the veteran engineer and student, alike, up to date on current trends in the technology and offer a reference for the industry for its practical applications.
Smart grids and green energy systems are promising research fields which need to be commercialized for many reasons, including more efficient energy systems and environmental concerns. Performance and cost are tradeoffs which need to be researched to arrive at optimal solutions. This book focuses on the convergence of various technologies involved in smart grids and green energy systems. Areas of expertise, such as computer science, electronics, electrical engineering, and mechanical engineering are all covered. In the future, there is no doubt that all countries will gradually shift from conventional energy sources to green energy systems. Thus, it is extremely important for any engineer, scientist, or other professional in this area to keep up with evolving technologies, techniques, and processes covered in this important new volume.
This book brings together the research that has been carrying out in the field of smart grids and green energy systems, across a variety of industries and scientific subject-areas. Written and edited by a team of experts, this groundbreaking collection of papers serves as a point of convergence wherein all these domains need to be addressed. The various chapters are configured in order to address the challenges faced in smart grid and green energy systems from various fields and possible solutions. Valuable as a learning tool for beginners in this area as well as a daily reference for engineers and scientists working in these areas, this is a must-have for any library.
Preface xiii 1 Studies on Enhancement of Battery Pack Efficiency Using Active Cell Balancing Techniques for Electric Vehicle Applications Through MATLAB Simulations 1 B. Akhila and S. Arockia Edwin Xavier 1.1 Introduction 2 1.2 Influence of Lithium Ion Batteries 2 1.3 Cell Balancing 3 1.3.1 Types of Cell Balancing 3 1.3.2 Passive Cell Balancing 3 1.3.3 Active Cell Balancing 3 1.3.4 Why Cell Balancing is Important 5 1.4 Block Diagram 6 1.5 SOC Control Using Passive Cell Equalization 6 1.5.1 Equalization Results 7 1.6 Voltage Control Using Active Cell Equalization 9 1.6.1 The Flyback Converter Method 9 1.6.2 The Multi-Winding Transformer Method 11 1.7 Conclusion 14 References 15 2 Evaluation and Impacts of Minimum Energy Performance Standards of Electrical Motors in India 17 S. Manoharan, G. Sureshkumaar, B. Mahalakshmi and V. Govindaraj 2.1 Introduction 18 2.2 A Review of IS 12615 Evaluation 20 2.3 A Scenario of ‘MEPS’ for Electric Motors From Around the World 25 2.4 Government Initiatives to Improve the Energy Efficiency of Electric Motors 29 2.4.1 National Motor Replacement Program 29 2.4.2 Obstacles to Overcome and the Path Forward 30 2.5 Conclusion 31 References 31 3 Smart Power Tracking and Power Factor Correction in a PV System 35 Karthika J., Santhosh B., Vallinayagam K., Thennavan S. and Narendran R.K. 3.1 Introduction 35 3.2 Literature Review 37 3.3 Smart Power Tracking 37 3.4 Perturb and Observe 38 3.5 Need for Power Factor Correction 40 3.6 Correction Method 40 3.7 Capacitive Bank 40 3.8 Simulation 43 3.9 Result and Output 43 3.10 Conclusion 45 References 45 4 Grid Connected Inverter for PV System Using Fuzzy Logic Controller 47 Elam Cheren S., Sakthi Ganesh R., Vijay K., Surya V. and Venkatesha R. 4.1 Introduction 47 4.2 Methodology 49 4.3 PV Module 49 4.4 DC-DC Converter 50 4.5 Mppt 51 4.6 Grid Connected PV System 55 4.7 Results and Discussion 55 4.8 Conclusion 56 References 57 5 An Experimental Investigation of Fuzzy-Based Voltage-Lift Multilevel Inverter Using Solar Photovoltaic Application 59 Gnanavel C., Johny Renoald A., Saravanan S., Vanchinathan K. and Sathishkhanna P. 5.1 Introduction 60 5.2 Proposed SVLMLI 61 5.2.1 Trigger On State 62 5.2.2 Trigger Off State 63 5.3 Design of FLC 64 5.4 FL Tuned PI Controller 66 5.5 Result and Discussion 66 5.6 Conclusion 72 References 72 6 Potentials and Challenges of Digital Twin: Toward Industry 4.0 75 M. Baranidharan, Dattatraya Kalel and R. Raja Singh 6.1 Introduction 75 6.2 Industry 4.0 77 6.3 Digital Twin Technology 79 6.3.1 Concept of Physical and Virtual Model of DTT 80 6.3.2 Digital Twin Effect on Industries—Industry 4.0 82 6.4 Potential and Challenges in Applying Digital Twin Technology 83 6.4.1 Information Technology Infrastructure 83 6.4.2 Useful Data 83 6.4.3 Trust 84 6.4.4 Expectations 84 6.4.5 Standardized Modeling 84 6.4.6 Domain Modeling 85 6.5 Research and Development Challenges 85 6.5.1 Cost 85 6.5.2 Precise Representation 86 6.5.3 Data Quality 86 6.5.4 Interoperability 86 6.5.5 Intellectual Property Protection 86 6.5.6 Cyber Security 86 6.6 Future Scope of Digital Twin Technology 87 6.7 Conclusion 87 References 88 7 Real-Time Data Acquisition System for PV Module 91 Durgesh Kumar, Ila Ashok, Sweta Kumari, Dipanjali and Lawrence Kumar 7.1 Introduction 92 7.2 Description of Instrumentation Setup 93 7.3 Experimental Setup and Data Acquisition System 96 7.4 Experimental Results 97 7.4.1 Under Uniform Illumination 98 7.4.2 Under Partial Shading Condition 100 7.5 Conclusion 101 References 102 8 Investigation of Controllers for “N” Input DC-DC Converters 105 A. Lavanya, J. Divya Navamani, Nivas Jayaseelan and A. Geetha 8.1 Introduction 105 8.2 Role of Control Technique in Multivariable System 106 8.3 Controllers Employed in Multivariable System 108 8.4 Simulation Results and Discussion 114 8.5 Conclusion 114 References 117 9 Fuzzy Logic Controlled Dual-Input DC-DC Converter for PV Applications 119 Nivas Jayaseelan, A. Lavanya1 and J. Divya Navamani 9.1 Introduction 119 9.2 d 3 Converter Topology 121 9.2.1 State-Space Model of the Converter 122 9.3 Closed-Loop Controller 126 9.4 Experimental Verification 129 9.4.1 Result Discussion 130 9.4.2 Comparative Analysis 132 9.5 Conclusions 134 References 135 10 A Smart IoT-Based Solar Power Monitoring System 137 O. Sobhana, G.C. Prabhakar, N. Amarnadh Reddy and Rashmi Kapoor 10.1 Introduction 137 10.2 Phases of System Implementation Process 138 10.2.1 Data Acquisition 139 10.2.2 Data Interface 140 10.2.3 ThingSpeak Analytics 141 10.3 Hardware Implementation and Results 142 10.4 Conclusions 145 References 145 11 Control of Multi-Input Interleaved DC-DC Boost Converter for Electric Vehicle and Renewable Energy 147 M. Bharathidasan and V. Indragandhi 11.1 Introduction 147 11.2 Proposed Converter Topology 150 11.3 Control Strategy 152 11.4 Simulation Results 153 11.5 Conclusion 155 References 156 12 Maximum Power Point Tracking Techniques for Photovoltaic Systems—A Comprehensive Review From Real-Time Implementation Perspective 159 Sudarshan B.S., Chitra A., Razia Sultana W., P.R. Chandrasekhar, Tanisha Ganguli and Ishita Sahu 12.1 Introduction 160 12.2 Conventional Electrical MPP Tracking Methods 161 12.2.1 Open-Circuit Voltage Method 162 12.2.2 Short-Circuit Current Method 163 12.2.3 Constant Voltage Controller Method 164 12.2.4 Perturb and Observe Algorithm 165 12.2.5 Incremental Conductance Algorithm 166 12.2.6 Hill-Climbing (HC) Algorithm 168 12.2.7 Other Conventional Methods 169 12.3 Evolutionary Algorithm and Artificial Intelligence–Based MPP Tracking 170 12.3.1 Fuzzy Logic Controller–Based MPP Technique 170 12.3.2 Artificial Neural Network–Based MPP Algorithm 173 12.3.3 Adaptive Neuro-Fuzzy Inference System MPP Tracking 175 12.3.4 Modified P&O Method (Variable Step Size P&O) 176 12.3.5 Particle Swarm Optimization Algorithm 178 12.3.6 Ant Colony Optimization–Based MPP Tracking 180 12.3.7 Genetic Algorithm–Based Tracking 181 12.3.8 Cuckoo Search–Based MPPT 183 12.4 Comprehensive Review on the Implementation Issues of MPPT 184 12.5 Commercial Products 184 12.6 Conclusion 187 References 188 13 Reliability Analysis Techniques of Grid-Connected PV Power Models 197 Raghavendra Rao N. S., Chitra A. and Daki Krishnachaitanya 13.1 Introduction 197 13.2 Reliability Empirical Relations and Standards 199 13.3 Reliability Estimation of Grid-Connected PV Power Models 201 13.4 Conclusion 205 References 205 14 DC Microgrid: A Review on Issues and Control 207 D. Anitha and K. Premkumar 14.1 Introduction 208 14.2 Challenges Incurred in DCMG 209 14.2.1 Difficulties in Extinguishing Arc 209 14.2.2 Lack of Adequate Grounding 210 14.2.3 Effect of Short-Circuit Fault Current and Inverter Sensitivity 210 14.2.4 Electromagnetic Interference and Inrush Currents 211 14.3 Control Strategies Adopted in DC Micro-Grid 212 14.3.1 Centralized Control 213 14.3.2 Decentralized Control 215 14.3.2.1 Droop Control With Virtual Resistance 216 14.3.2.2 Adaptive Droop Control 216 14.3.3 Distributed Control 217 14.4 Hierarchical Control 218 14.5 Conclusion 223 References 224 15 Maximizing Power Generation of a Partially Shaded PV Array Using Genetic Algorithm 231 Alice Hepzibah A., Premkumar K., Shyam D. and Aarthi B. 15.1 Introduction 232 15.2 Literature Review 232 15.3 Proposed System Design 233 15.4 Design of SEPIC Converter 234 15.5 Comparison of Different Optimization Tools 235 15.5.1 Fuzzy Logic Control 235 15.5.2 ANFIS Model 235 15.5.3 Genetic Algorithm 238 15.5.4 Incremental Conductance Method (INC) 239 15.6 Single-Phase Inverter 241 15.7 Simulation Results 241 15.8 Results and Discussion 242 15.9 Conclusion 243 References 243 16 Investigation of Super-Lift Multilevel Inverter Using Water Pump Irrigation System 247 Johny Renoald Albert, Premkumar K., Vanchinathan K., Nazar Ali A., Sagayaraj R. and Saravanan T.S. 16.1 Introduction 248 16.2 Proposed System Configuration 249 16.3 Design of Concentrator SPV Array 250 16.4 Principle of Particle Swarm Optimization 253 16.5 Result and Discussion 255 16.6 Conclusion 259 References 259 17 Analysis of Load Torque Characteristics for an Electrical Tractor 263 Gade Chandra Sekhar Reddy, Sujay Deole, Mandar More, Razia Sultana W. and Chitra A. 17.1 Introduction 263 17.2 Methodology 264 17.2.1 Traction Resistive Forces 264 17.2.2 Calculation of Rolling Resistance Force 265 17.2.3 Calculation of Grade Resistance 265 17.2.4 Calculation of Aerodynamic Force 266 17.2.5 Calculation of Acceleration Force 267 17.2.6 Contribution of Total Running Resistances 267 17.3 Dynamics of Draft Force 268 17.4 Power Train Calculation 274 17.4.1 Calculations for Field Applications 276 17.4.2 Calculation for Transport Applications 276 17.5 MATLAB Simulation and Result 277 17.6 Motor Specifications 277 17.7 Conclusion and Discussion 277 References 282 18 Comparison of Wireless Charging Compensation Topologies of Electric Vehicle 285 M. Rajalakshmi and W. Razia Sultana 18.1 Introduction 286 18.2 Types of Electric Vehicle Wireless Charging Systems (EVWCS) 287 18.2.1 Capacitive Wireless Charging System (CWCS) 287 18.2.2 Permanent Magnet Gear Wireless Charging System (PMWC) 289 18.2.3 Inductive Wireless Charging System (IWC) 289 18.2.4 Resonant Inductive Wireless Charging System (RIWC) 289 18.3 Classification of Compensation Topologies 289 18.4 Simulation Diagram 292 18.4.1 Series-Series 292 18.4.2 Parallel-Series 293 18.5 Design Parameters of Circuit Used in Simulation 294 18.6 Results and Discussion 294 18.6.1 Series-Series Topology 294 18.6.2 Parallel-Series Topology Waveforms 296 18.7 Conclusion 298 References 299 19 Analysis of PV System in Grid Connected and Islanded Modes of Operation 301 Aditya Ghatak, Tushar Pandit, Chitra A. and Razia Sultana W. 19.1 Introduction 301 19.2 Grid Connected Mode 302 19.2.1 DC Side Control 306 19.2.2 AC Side Control 306 19.3 Islanded Mode 308 19.4 Results and Discussion 310 19.5 Conclusion 314 References 314 Index 317
A. Chitra, PhD, is an associate professor in the School of Electrical Engineering at the Vellore Institute of Technology, Vellore, India. She received her PhD from Pondicherry University and has published many papers in scientific journals and conferences. She is one of the Board of Studies members at Pondicherry Engineering College and is currently working on several books for Scrivener Publishing. V. Indra Gandhi, PhD, is an associate professor in the School of Electrical Engineering, VIT, Vellore, Tamilnadu. She received her PhD from Anna University in Chennai, India. She has over 12 years of experience in the area of power electronics and renewable energy systems and has authored over 100 research articles in leading peer-reviewed international journals. She has filed three patents and has one book to her credit. She has also received the best researcher award from NFED, Coimbatore and from VIT. W. Razia Sultana, PhD, is an associate professor in the School of Electrical Engineering, at the Vellore Institute of Technology University, Vellore, Tamil Nadu, India, where she also received her PhD.
