Segmented coil support bases route cooling air through the machine to offset reduced flow area from larger field coils.
Clamping plates and holding members fix amorphous alloy stacks directly, eliminating resin layers that reduce space factor and increase iron loss.
Dynamic winding switching resolves motor-generator speed contradictions by reducing back EMFs and heat production across varying rotational speeds.
Inductor pole coils on a reluctance motor rotor capture spatial harmonic fluxes to generate self-excitation currents.
A magnetic transmission assembly integrates with motors to enable variable speed ratios through adjustable steel pieces.
Segmented accommodating boxes rotate into position on split core stators, ensuring complete insulation filling and reducing material waste.
AC exciter operates as a motor to rotate turbine shafts at low speeds without dedicated turning gears.
A reluctance motor circuit applies 120-degree conduction for forward rotation and 180-degree conduction for reverse rotation.
A conducting line protection device uses a radial bearing section to support power lines during rotation.
Alternating spoke and conductor openings in a rotor core reduce harmonic content and eddy currents to improve efficiency.
A self-commutating switched reluctance generator eliminates complex timing sensors through dynamic winding excitation control.