Synchronous Motors TRIZ Cases

Integrated motor electronics also drive the discharge pump, cutting washing machine cabling, parts count, and failure risk.

Separable stator segments allow radial rotor access for easier maintenance in tight spaces while preserving electromagnetic current generation.

Modular stator segments and sensor-controlled electromagnets deliver high torque at low RPM without permanent magnets or grid dependence.

Multi-layer coil bodies connected inner-to-inner and outer-to-outer simplify rotor winding while reducing wire load and insulation damage.

Metal amorphous nanocomposite cores and rare-earth-free magnets cut power loss and temperature rise in an axial flux motor.

A permanent magnet synchronous motor and transfer case improve aerial work platform speed control, passing performance, and energy use.

Permanent magnet synchronous motors drive eccenter weights at high speed, giving vibratory hammers hydraulic-like power in a more compact form.

Segmented threaded amortisseur bars let synchronous rotors be refurbished without removing main coils, cutting repair time and cost.

A circular three-phase stator layout drives a non-magnetic conductive rotor to deliver rotational speed and torque without permanent magnets.

Using synchronous motors to drive eccenter weights, this case shows a more compact vibratory hammer with hydraulic-like power density.

Contactless rotor excitation replaces slip rings with an induced current converter, enabling higher-speed electric machines with less wear.

A fixed magnet arrangement and pivotable rotor cut power input and inertial forces while keeping multiple stable lock positions and burglar resistance.

Asymmetric multi-motor gear ratios balance launch torque and cruising efficiency while fitting the electric drive axle between frame rails.

Metal amorphous nanocomposite rotor and stator cores cut hysteresis and eddy current losses in rare-earth-free axial flux motors.

Stacked tooth laminations, structural rings, and overmolding raise synchronous reluctance motor power density while adding insulation and corrosion resistance.

Segmented rotor design overcomes weak magnetic fields in wide air gaps, enabling efficient two-axis actuation without increasing current intensity.

A virtual damper algorithm stabilizes permanent magnet motors by simulating a physical damper cage through software-based torque adjustments.