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I. Doležel, P. Karban, B. Ulrych, M. Pantelyat, Y. Matyukhin, P. Gontarowskiy, N. Shulzhenko (2008)
Limit Operation Regimes of Actuators Working on the Principle of ThermoelasticityIEEE Transactions on Magnetics, 44
M. Pantelyat, N. Shulzhenko (2006)
Finite element analysis of electromagnetic field and losses in a turbogenerator rotor
M. Pantelyat (1998)
Coupled electromagnetic, thermal and elastic–plastic simulation of multi‐impulse inductive heatingInternational Journal of Applied Electromagnetics and Mechanics, 9
Jae-Kwang Kim, Sangyeop Kwak, S. Cho, Hyun-Kyo Jung, T. Chung, Sang-Yong Jung (2006)
Optimization of multilayer buried magnet synchronous machine combined with stress and thermal analysisIEEE Transactions on Magnetics, 42
S. Timoshenko, J. Goodier (1975)
Theory of elasticityJournal of Applied Mechanics, 42
I. Doležel, P. Karban, B. Ulrych, M. Pantelyat, Y. Matyukhin, P. Gontarowskiy (2007)
Numerical model of a thermoelastic actuator solved as a coupled contact problemCompel-the International Journal for Computation and Mathematics in Electrical and Electronic Engineering, 26
M. Pantelyat (1999)
Numerical analysis of impulse electromagnetic fields in soft ferromagnetic materialsInternational Journal of Applied Electromagnetics and Mechanics, 10
O. Bíró, K. Preis, R. Dyczij‐Edlinger, Z. Badics, H. Riedler
Coupled electric, thermal and elastic simulation of BaTiO 3 PTC thermistor
Purpose – The paper seeks to present a methodology of computer simulation of coupled magneto‐thermo‐mechanical processes in various electrical engineering devices. The methodology allows determining their parameters, characteristics and behaviour in various operation regimes. Design/methodology/approach – The mathematical model consisting of three equations describing magnetic field, temperature field and field of mechanical strains and stresses (or thermoelastic displacements) is solved numerically, partially in the hard‐coupled formulation. Findings – The methodology seems to be sufficiently robust, reliable and applicable to a wide spectrum of devices. Research limitations/implications – At this stage of research, the hard‐coupled formulation of thermo‐mechanical (or thermoelastic) problems is still possible only in 2D. Practical implications – The methodology can successfully be used for design of numerous machines, apparatus and devices from the area of low‐frequency electrical engineering ranging from small actuators to large synchronous generators. Originality/value – Complete numerical analysis of coupled magneto‐thermo‐mechanical phenomena in electrical devices.
COMPEL: The International Journal for Computation and Mathematics in Electrical and Electronic Engineering – Emerald Publishing
Published: Jul 12, 2011
Keywords: Numerical analysis; Finite element analysis
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