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| Titre : |
DC/AC Converters: analysis, modeling and design consideration |
| Type de document : |
document électronique |
| Auteurs : |
Nikolay Hinov, Auteur |
| Editeur : |
Basel [Switzerland] : MDPI |
| Année de publication : |
2025 |
| Importance : |
176 p. |
| ISBN/ISSN/EAN : |
978-3-7258-4057-1 |
| Langues : |
Anglais (eng) |
| Catégories : |
Open Access Publications
|
| Tags : |
DC/AC converters analysis modeling design consideration power electronics |
| Index. décimale : |
621.3 Eléctrotechnique, technologie du magnétisme, optique appliquée, électronique |
| Résumé : |
This monograph presents a comprehensive and structured study of DC/AC converters, focusing on the fundamental types—current source inverters (CSIs), voltage source inverters (VSIs), and resonant inverters (RIs). The book offers a unified analytical and modeling framework, enabling detailed investigation of electromagnetic processes in inverter power circuits. A particular emphasis is placed on the development and implementation of specialized simulation models, as well as the formulation of general design methodologies applicable across a wide range of converter topologies and operating modes. The content is supported by numerous examples, diagrams, time-domain waveforms, and simulation case studies using MATLAB/Simulink and LTspice environments. The monograph integrates theory, numerical modeling, and engineering design in a coherent manner to bridge the gap between academic research and practical power electronics development. The book is intended for the following audiences:
- Graduate and PhD students specializing in power electronics, electrical engineering, or related fields.
- Academic researchers and teaching staff looking for a modern, structured reference in the field of DC/AC power conversion.
- Engineers and system designers working on industrial applications such as electric drives, renewable energy systems, uninterruptible power supplies (UPSs), and high-frequency energy processing.
- Developers interested in advanced simulation techniques and design optimization of inverter-based systems.
No prior deep knowledge in inverter modeling is required, but a solid understanding of circuit theory and power electronics principles is beneficial. The approach adopted in this book is methodologically unified, model-driven, and application-oriented. It combines the following:
- Analytical modeling based on the study of electromagnetic processes in RLC equivalent circuits, suitable for all major inverter classes.
- Numerical simulation, using MATLAB/Simulink and LTspice, for accurate dynamic and steady-state analysis.
- Design methodology, offering step-by-step procedures to develop and optimize inverters with different topologies and operating modes.
- Practical validation, through case studies and simulated experiments, ensuring a direct link between theory and engineering practice.
This hybrid approach ensures consistency, clarity, and relevance for both educational and real-world engineering environments. It is especially useful in contexts where design efficiency, model accuracy, and functional reliability are of critical importance. |
| En ligne : |
https://doi.org/10.3390/books978-3-7258-4057-1 |
DC/AC Converters: analysis, modeling and design consideration [document électronique] / Nikolay Hinov, Auteur . - Basel (Switzerland) : MDPI, 2025 . - 176 p. ISBN : 978-3-7258-4057-1 Langues : Anglais ( eng)
| Catégories : |
Open Access Publications
|
| Tags : |
DC/AC converters analysis modeling design consideration power electronics |
| Index. décimale : |
621.3 Eléctrotechnique, technologie du magnétisme, optique appliquée, électronique |
| Résumé : |
This monograph presents a comprehensive and structured study of DC/AC converters, focusing on the fundamental types—current source inverters (CSIs), voltage source inverters (VSIs), and resonant inverters (RIs). The book offers a unified analytical and modeling framework, enabling detailed investigation of electromagnetic processes in inverter power circuits. A particular emphasis is placed on the development and implementation of specialized simulation models, as well as the formulation of general design methodologies applicable across a wide range of converter topologies and operating modes. The content is supported by numerous examples, diagrams, time-domain waveforms, and simulation case studies using MATLAB/Simulink and LTspice environments. The monograph integrates theory, numerical modeling, and engineering design in a coherent manner to bridge the gap between academic research and practical power electronics development. The book is intended for the following audiences:
- Graduate and PhD students specializing in power electronics, electrical engineering, or related fields.
- Academic researchers and teaching staff looking for a modern, structured reference in the field of DC/AC power conversion.
- Engineers and system designers working on industrial applications such as electric drives, renewable energy systems, uninterruptible power supplies (UPSs), and high-frequency energy processing.
- Developers interested in advanced simulation techniques and design optimization of inverter-based systems.
No prior deep knowledge in inverter modeling is required, but a solid understanding of circuit theory and power electronics principles is beneficial. The approach adopted in this book is methodologically unified, model-driven, and application-oriented. It combines the following:
- Analytical modeling based on the study of electromagnetic processes in RLC equivalent circuits, suitable for all major inverter classes.
- Numerical simulation, using MATLAB/Simulink and LTspice, for accurate dynamic and steady-state analysis.
- Design methodology, offering step-by-step procedures to develop and optimize inverters with different topologies and operating modes.
- Practical validation, through case studies and simulated experiments, ensuring a direct link between theory and engineering practice.
This hybrid approach ensures consistency, clarity, and relevance for both educational and real-world engineering environments. It is especially useful in contexts where design efficiency, model accuracy, and functional reliability are of critical importance. |
| En ligne : |
https://doi.org/10.3390/books978-3-7258-4057-1 |
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