دانلود کتاب مبدل های DC-DC برای سیستم های انرژی های تجدید پذیر آینده

This book describes modeling and analysis of DC–DC converters for future renewable energy systems. Chapter 1 will help researchers to get a thorough understanding about the design of key component of the DCMG (DC microgrid), i.e., DC–DC converter. It allows control operation to take place in interconnected renewable energy sources (RES), energy storage systems (ESS) and loads operating at different voltage levels to a common DC bus. In Chap. 2, the description of DC–DC high gain converters with different solar photovoltaic (PV)-based systems is presented, and then, an improved high gain buck–boost converter (IHGBBC) suitable for PV-based systems is demonstrated. A boost converter with the generalized structure of quadratic boosting cell is proposed in Chap. 3. The proposed structure having three quadratic boosting cells (n = 3) can produce a high magnitude of output DC voltage from a low-magnitude DC voltage by adjusting the number of quadratic cells in the generalized quadratic cell structure with an appropriate duty ratio (d). Chapter 4 portrays the procedure to design a flyback converter (230 V DC–5 V DC) functioning under discontinuous conduction mode. The three-level and five-level of neutral point control inverter (NPC multilevel inverters) utilized for DC to AC control transformation are explained in Chap. 5. In Chap. 6, a bidirectional interleaved switched capacitor DC–DC converter is proposed as a power electronic interface for microgrids. Chapter 7 presents advanced LUO converters used for renewable energy applications in detail, and simulations of these converters are presented. The performance review of solar energy conversion systems (SECS) with the integration of the advanced DC/DC converter super-lift Luo converter (SLLC) is discussed in Chap. 8. Chapter 9 explains a detailed analysis of transformerless non-coupled inductor quadratic boost converters. Chapter 10 presents the design and modeling of photovoltaic (PV) emulator using DC–DC buck converter in MATLAB/Simulink and its hardware implementation utilizing Arduino controller. In Chap. 11, a smart low-voltage DC (LVDC) distribution system is designed in real time to utilize the power from hybrid DC microgrid made of solar photovoltaic (SPV) and wind energy conversion systems (WECS). In this work, a DC–DC converter plays a major role to achieve the proposed distribution system. Chapter 12 presents an approach using multiple input converter (MIC) to realize individual maximum power from photovoltaic modules. Chapter 13 presents the overview of control methods and parameter designing of the dual active bridge (DAB) power converter, applicable in the renewable energy system. Chapter 14 focuses on high-frequency signal-based fault diagnosis strategy for open-circuit (OCF) and short-circuit fault (SCF) identification on two-level three-phase voltage source power converter-based PMSM drive system. Chapter 15 describes modeling of different DC–DC converter for green energy applications. Chapter 16 focuses on the design and analysis of DC–DC buck converter with drift-free MPPT algorithm for a self-excited induction generator (SEIG)-based wind energy generation system. Chapter 17 explains design of roof-top photovoltaic system (RTPV) panels connected to the boost converter with an inverter and batteries. The design and implementation of the virtual synchronous machine (VSM) in microgrid (MG) are explained in Chap. 18. In Chap. 19, the dominant types of DC–DC power electronics converters used for green energy applications are discussed in detail. Chapter 20 proposes Internet of things (IoT)-based maximum power point tracker for brushless DC motor (BLDC)-driven photovoltaic water pumping system. Moreover, a dual-level boost converter is employed to obtain high output voltage with enhanced efficiency and has economical operation compared to classical boost converter. Switched mode fourth-order buck–boost converter using Type II and Type III controllers in DC grid applications has been discussed in Chap. 21. Fractional-order PI-lead controller design of DC–DC power converter for renewable energy applications is explained in Chap. 22. Chapter 23 explains power management of battery-integrated PV system with sliding mode controller (SMC)-controlled bidirectional converter. Overview of bidirectional DC–DC converters topologies for electric vehicle and renewable energy system has been discussed in Chap. 24. Chapter 25 examines conventional boost converter (CBC) and interleaved boost converter (IBC) with PV sources that are designed to attain maximum voltage from the converter for green energy applications.