Book contents
- Principles of Power Electronics
- Reviews
- Principles of Power Electronics
- Copyright page
- Dedication
- Contents
- Preface
- Acknowledgments
- 1 Introduction
- Part I Form and Function
- Part II Dynamic Models and Control
- Part III Components and Devices
- 15 Components and Devices: An Overview
- 16 Review of Semiconductor Devices
- 17 Power Semiconductor Devices
- 18 Introduction to Magnetics
- 19 Magnetic Component Modeling
- 20 Introduction to Magnetics Design
- 21 Magnetics Loss Analysis and Design
- Part IV Practical Considerations
- Index
- References
20 - Introduction to Magnetics Design
from Part III - Components and Devices
Published online by Cambridge University Press: 03 August 2023
Book contents
- Principles of Power Electronics
- Reviews
- Principles of Power Electronics
- Copyright page
- Dedication
- Contents
- Preface
- Acknowledgments
- 1 Introduction
- Part I Form and Function
- Part II Dynamic Models and Control
- Part III Components and Devices
- 15 Components and Devices: An Overview
- 16 Review of Semiconductor Devices
- 17 Power Semiconductor Devices
- 18 Introduction to Magnetics
- 19 Magnetic Component Modeling
- 20 Introduction to Magnetics Design
- 21 Magnetics Loss Analysis and Design
- Part IV Practical Considerations
- Index
- References
Summary
The previous chapters on magnetics provided thekey concepts needed to analyze, model, and designmagnetic components such as inductors andtransformers. The purpose of this chapter is torefine and extend the methods introduced there,with a focus on techniques for magnetic componentdesign. In particular, we introduce design methodsand sizing considerations for efficientlyconverging on an appropriate design. Thisincludes, for example, approximate methods forsizing the magnetic core for an inductor ortransformer, and metrics for comparing magneticmaterials.
Information
- Type
- Chapter
- Information
- Principles of Power Electronics , pp. 612 - 642Publisher: Cambridge University PressPrint publication year: 2023
References
McLyman, W.
T.,
Transformer and Inductor Design
Handbook, 4th edn.,
Boca Raton:
CRC Press,
2011.Google Scholar
Erickson, R.
W. and
Maksimović, D.,
Fundamentals of Power
Electronics, 3rd edn.,
Cham:
Springer,
2020.CrossRefGoogle Scholar
Hurley, W.
G. and
Wölfle, W.
H.,
Transformers and Inductors for Power
Electronics,
Chichester:
Wiley,
2013.CrossRefGoogle Scholar
Judd, F.
F. and
Kressler, D.
R.,
“Design Optimization of Small
Low-Frequency Power Transformers,”
IEEE Trans. Magnetics, vol.
13, pp.
1058–1069, July
1977.CrossRefGoogle Scholar
Kyaw, P.
A.,
Delhommais, M.,
Qiu, J., Sullivan, C.
R.,
Schannen, J.-L., and
Rigaud, C.,
“Thermal Modeling of Inductor and
Transformer Windings Including Litz
Wire,” IEEE Trans. Power
Electronics, vol. 35,
pp. 867–881, Jan.
2020.CrossRefGoogle Scholar
Gu, W.-J. and
Liu, R.,
“A Study of Volume and Weight vs.
Frequency for High-Frequency
Transformers,” 1993 IEEE
Power Electronics Specialists Conference,
pp. 1123–1129, June
1993.Google Scholar
Hurley, W.
G.,
Merkin, T., and
Duffy, M.,
“The Performance Factor for
Magnetic Materials Revisited,”
IEEE Power Electronics Magazine,
pp. 26–34, Sep.
2018.CrossRefGoogle Scholar
Sullivan, C.
R.,
“Basic Power Inductor
Design,”
TechRxiv, https://doi.org/10.36227/techrxiv.14370581.v1,
preprint (2021).CrossRefGoogle Scholar
Ranjram, M.
K.,
Moon, I., and
Perreault, D.
J.,
“Variable-Inverter-Rectifier-Transformer:
A Hybrid Electronic and Magnetic Structure
Enabling Adjustable High Step-Down Conversion
Ratios,” IEEE Trans. Power
Electronics, vol. 33,
pp. 6509–6525, Aug.
2018.CrossRefGoogle Scholar
Pollock, J.
D.,
Abdallah, T., and
Sullivan, C.
R.,
“Easy-to-Use CAD Tools for
Litz-Wire Winding Optimization,”
IEEE Applied Power Electronics
Conference, pp.
1157–1163, Feb.
2003.Google Scholar
Mulder, S.
A.,
“Loss formulas for power ferrites
and their use in transformer
design,” Phillips
Components, pp.
1–16,
Eindhoven:
Philips,
1994.Google Scholar
Hanson, A.
J.,
Belk, J.
A.,
Lim, S., Sullivan, C.
R., and
Perreault, D.
J.,
“Measurements and Performance
Factor Comparisons of Magnetic Materials at High
Frequency,” IEEE Trans.
Power Electronics, vol.
31, pp.
7909–7925, Nov.
2016.CrossRefGoogle Scholar
Perreault, D.
J.,
Hu, J., Rivas, J.
M.,
Han, Y., Leitermann, O.,
Pilawa-Podgurski, R.
C. N.,
Sagneri, A., and
Sullivan, C.
R.,
“Opportunities and Challenges in
Very High Frequency Power
Conversion,” 2009 IEEE
Applied Power Electronics Conference, pp.
1–14, Feb.
2009.CrossRefGoogle Scholar
Odendaal, W. and
Ferreira, J.,
“Effects of Scaling High-Frequency
Transformer Parameters,”
IEEE Trans. Industry
Applications, vol. 35,
pp. 932–940,
Jul./Aug. 1999.CrossRefGoogle Scholar
Rand, A.,
“Inductor Size vs. Q: A Dimensional
Analysis,” IEEE Trans.
Components Parts, pp.
31–35, Mar.
1963.CrossRefGoogle Scholar
Sullivan, C.
R.,
Reese, B.
A.,
Stein, A.
L., and
Kyaw, P.
A.,
“On Size and Magnetics: Why Small
Efficient Power Inductors Are
Rare,” 2016 International
Symposium on 3D Power Electronics Integration and
Manufacturing, June
2016.CrossRefGoogle Scholar
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