Design Efficient Power and Distribution Transformers
This example uses EMWorks’ AC Magnetic module coupled with thermal analysis to simulate a 3-phase transformer with short-circuited secondaries. The study computes flux density, eddy and hysteresis losses, winding losses, induced voltages, and temperature distribution so you can evaluate efficiency, hotspots, and core material choices before prototyping.
This example uses EMWorks’ AC Magnetic module coupled with thermal analysis to simulate a 3-phase cylindrical transformer under open-circuit test. The study computes magnetic flux density, field intensity, core losses, and temperature distribution so you can evaluate material choices, cooling, and efficiency before prototyping.
This note uses EMWorks AC Magnetic to simulate a C-core AC transformer with inner and outer coils, computing magnetic flux density, current density and core losses at 50 Hz.
This example shows a single-phase transformer modeled with a laminated M27 core and copper windings. Using coupled AC magnetic and thermal analysis, we compute magnetic flux density, core losses, winding losses, and steady-state temperature rise under open-circuit operation at 60 Hz.
This example uses EMWorks to simulate a single-phase transformer and perform virtual open- and short-circuit tests. From a laminated-core CAD model with defined coil windings, EMAG computes core and copper losses, flux distribution, and key parameters needed to build the transformer’s equivalent circuit and evaluate efficiency in system-level studies.
This application note uses EMWorks to simulate a high-power transformer under short-circuit conditions, computing fields, eddy currents, forces, stress, and displacement, and quantifying how magnetic shunts reduce tank loading and vibration.