TY - JOUR
T1 - Force prediction including hysteresis effects in a short-stroke reluctance actuator using a 3d-FEM and the Preisach model
AU - Vrijsen, N.H.
AU - Jansen, J.W.
AU - Lomonova, E.A.
PY - 2013
Y1 - 2013
N2 - Magnetic hysteresis effects, present in the force of an E-core reluctance actuator, are examined by simulations and measurements. Simulations have been performed with a 3d finite element method (3d-FEM) and a Preisach model, which is extended with a dynamic magnetic equivalent circuit (MEC) model. Both simulation methods are first examined on the prediction of the magnetic flux density in a closed-and open toroid for dc-and ac excitations. Finally, both methods are used to predict the force of the E-core reluctance actuator, which is compared to ac force measurementsperformed with a piezoelectric load cell.
AB - Magnetic hysteresis effects, present in the force of an E-core reluctance actuator, are examined by simulations and measurements. Simulations have been performed with a 3d finite element method (3d-FEM) and a Preisach model, which is extended with a dynamic magnetic equivalent circuit (MEC) model. Both simulation methods are first examined on the prediction of the magnetic flux density in a closed-and open toroid for dc-and ac excitations. Finally, both methods are used to predict the force of the E-core reluctance actuator, which is compared to ac force measurementsperformed with a piezoelectric load cell.
U2 - 10.4028/www.scientific.net/AMM.416-417.187
DO - 10.4028/www.scientific.net/AMM.416-417.187
M3 - Article
SN - 1660-9336
VL - 416-417
SP - 187
EP - 194
JO - Applied Mechanics and Materials
JF - Applied Mechanics and Materials
ER -