Leakage inductance (English Wikipedia)

Saarbafi & Mclean 2014, AESO Transformer Modelling Guide, p. 9 of 304 Saarbafi, Karim; Mclean, Pamela (2014). "AESO Transformer Modelling Guide" (PDF). Calgary: AESO - Alberta Electric System Operator (prepared by Teshmont Consultants LP). pp. 304 pages. Retrieved August 6, 2018.

books.google.com

Brenner & Javid 1959, §18-1 Mutual Inductance, pp. 587-591 Brenner, Egon; Javid, Mansour (1959). "Chapter 18 – Circuits with Magnetic Coupling". Analysis of Electric Circuits. McGraw-Hill. pp. esp. 586–617.
Brenner & Javid 1959, §18-1 Mutual Inductance - Series connection of Mutual Inductance, pp. 591-592 Brenner, Egon; Javid, Mansour (1959). "Chapter 18 – Circuits with Magnetic Coupling". Analysis of Electric Circuits. McGraw-Hill. pp. esp. 586–617.
Brenner & Javid 1959, §18-5 The Linear Transformer, pp. 595-596 Brenner, Egon; Javid, Mansour (1959). "Chapter 18 – Circuits with Magnetic Coupling". Analysis of Electric Circuits. McGraw-Hill. pp. esp. 586–617.
Brenner & Javid 1959, §18-6 The Ideal Transformer, pp. 597-600: Eq. 2.2 holds exactly for an ideal transformer where, at the limit, as self-inductances approach an infinite value ( $L_{P}$ → ∞ & $L_{S}$ → ∞ ), the ratio $L_{P}/L_{S}$ approaches a finite value. Brenner, Egon; Javid, Mansour (1959). "Chapter 18 – Circuits with Magnetic Coupling". Analysis of Electric Circuits. McGraw-Hill. pp. esp. 586–617.
Brenner & Javid 1959, §18-7 Equivalent Circuit for the nonideal transformer, pp. 600-602 & fig. 18-18 Brenner, Egon; Javid, Mansour (1959). "Chapter 18 – Circuits with Magnetic Coupling". Analysis of Electric Circuits. McGraw-Hill. pp. esp. 586–617.
Brenner & Javid 1959, p. 602, "Fig. 18-18 In this equivalent circuit of a (nonideal) transformer the elements are physically realizable and the isolationg property of the transformer has been retained." Brenner, Egon; Javid, Mansour (1959). "Chapter 18 – Circuits with Magnetic Coupling". Analysis of Electric Circuits. McGraw-Hill. pp. esp. 586–617.

doi.org

11kW, 70kHz LLC Converter Design for 98% Efficiency. 2020 IEEE 21st Workshop on Control and Modeling for Power Electronics. November 2020. pp. 1–8. doi:10.1109/COMPEL49091.2020.9265771. S2CID 227278364.

electronics-tutorials.ws

Singh 2016, Mutual Inductance Singh, Mahendra (2016). "Mutual Inductance". Electronics Tutorials. Retrieved 6 January 2017.

electropedia.org

The terms inductive coupling factor and inductive leakage factor are in this article as defined in International Electrotechnical Commission Electropedia's IEV-131-12-41, Inductive coupling factor and IEV-131-12-42, Inductive leakage factor.
IEC 60050 (Publication date: 1990-10). Section 131-12: Circuit theory / Circuit elements and their characteristics, IEV 131-12-41 Inductive coupling factor
IEC 60050 (Publication date: 1990-10). Section 131-12: Circuit theory / Circuit elements and their characteristics, IEV ref. 131-12-42: "Inductive leakage factor
IEC 60050 (Publication date: 1990-10). Section 221-04: Magnetic bodies, IEV ref. 221-04-12: "Magnetic leakage factor - the ratio of the total magnetic flux to the useful magnetic flux of a magnetic circuit." This factor is also different from the inductive leakage factor described in this Leakage inductance article.

ieee.li

Erickson & Maksimovic 2001, Chapter 12 Basic Magnetic Theory, §12.2.3. Leakage inductances Erickson, Robert W.; Maksimovic, Dragan (2001). "Chapter 12: Basic Magnetics Theory (Instructor slides only for book)" (PDF). Fundamentals of Power Electronics (2nd ed.). Boulder: University of Colorado (slides) / Springer (book). pp. 72 slides. ISBN 978-0-7923-7270-7.

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11kW, 70kHz LLC Converter Design for 98% Efficiency. 2020 IEEE 21st Workshop on Control and Modeling for Power Electronics. November 2020. pp. 1–8. doi:10.1109/COMPEL49091.2020.9265771. S2CID 227278364.

oregonstate.edu

ir.library.oregonstate.edu

Kim 1963, p. 1 Kim, Joong Chung (1963). The Determination of Transformer Leakage Reactance by Using an Inpulse Driving Function. University of Oregon.
Kim 1963, pp. 3-12, Magnetice Leakage in Transformers; pp. 13-19, Leakage Reactance in Transformers. Kim, Joong Chung (1963). The Determination of Transformer Leakage Reactance by Using an Inpulse Driving Function. University of Oregon.
Kim 1963, p. 4, Fig. 1, Magnetic field due to current in the inner winding of a core-type transformer; Fig. 2, Magnetic field due to current in the outer winding of Fig. 1 Kim, Joong Chung (1963). The Determination of Transformer Leakage Reactance by Using an Inpulse Driving Function. University of Oregon.
Kim 1963, p. 10, eq. 12 Kim, Joong Chung (1963). The Determination of Transformer Leakage Reactance by Using an Inpulse Driving Function. University of Oregon.
Kim 1963, p. 10, eq. 13 Kim, Joong Chung (1963). The Determination of Transformer Leakage Reactance by Using an Inpulse Driving Function. University of Oregon.

pw.edu.pl

materialy.itc.pw.edu.pl

Hameyer 2001, p. 24 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, p. 24, eq. 3-1 thru eq. 3-4 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, p. 25, eq. 3-13 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, p. 27 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, p. 29, Fig. 26 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 28, eq. 3-31 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 28, eq. 3-32 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 29, eq. 3-33 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 29, eq. 3-34 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 29, eq. 3-35 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 29, eq. 3-36 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, p. 29, eq. 3-37 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.

rhombus-ind.com

Rhombus Industries 1998, Testing Inductance "Mutual Inductance" (PDF). Rhombus Industries Inc. 1998. Retrieved 4 August 2018.
This measured short-circuit inductance value is often referred to as the leakage inductance. See for example are, Measuring Leakage Inductance, Testing Inductance. The formal leakage inductance is given by (Eq. 2.14).

semanticscholar.org

api.semanticscholar.org

11kW, 70kHz LLC Converter Design for 98% Efficiency. 2020 IEEE 21st Workshop on Control and Modeling for Power Electronics. November 2020. pp. 1–8. doi:10.1109/COMPEL49091.2020.9265771. S2CID 227278364.

voltech.com

Voltech 2016, Measuring Leakage Inductance "Measuring Leakage Inductance". Voltech Instruments. 2016. Retrieved 5 August 2018.
This measured short-circuit inductance value is often referred to as the leakage inductance. See for example are, Measuring Leakage Inductance, Testing Inductance. The formal leakage inductance is given by (Eq. 2.14).

web.archive.org

The terms inductive coupling factor and inductive leakage factor are in this article as defined in International Electrotechnical Commission Electropedia's IEV-131-12-41, Inductive coupling factor and IEV-131-12-42, Inductive leakage factor.
Hameyer 2001, p. 24 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, p. 24, eq. 3-1 thru eq. 3-4 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, p. 25, eq. 3-13 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, p. 27 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, p. 29, Fig. 26 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 28, eq. 3-31 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 28, eq. 3-32 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 29, eq. 3-33 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 29, eq. 3-34 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 29, eq. 3-35 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, pp. 29, eq. 3-36 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.
Hameyer 2001, p. 29, eq. 3-37 Hameyer, Kay (2001). Electrical Machines I: Basics, Design, Function, Operation (PDF). RWTH Aachen University Institute of Electrical Machines. Archived from the original (PDF) on 2013-02-10.

wiley.com

Pyrhönen, Jokinen & Hrabovcová 2008, Chapter 4 Flux Leakage Pyrhönen, J.; Jokinen, T.; Hrabovcová, V. (2008). Design of Rotating Electrical Machines. p. Chapter 4 Flux Leakage.