Automotive

Alternators rely on precisely wound magnet wire to create the electromagnetic fields that convert mechanical energy into electrical power.

Automotive comfort controls rely on compact electrical components to manage airflow, temperature, seating, mirrors, windows, and other convenience systems throughout the vehicle.

Charging stations rely on electrical components that manage power conversion, control, safety response, cooling, and communication between the charger and vehicle.

Dynamic stability and traction control systems rely on responsive electrical components that help support vehicle stability, traction, and controlled system response.

Lane assist systems rely on sensors, actuators, motors, controls, and steering-related components to help detect lane position and support driver assistance functions.

Regenerative braking systems rely on electrical machines that recover kinetic energy and convert it into usable electrical power.

Traction motors convert electrical energy into the torque needed to move hybrid, electric, rail, and commercial transportation platforms.

Stability control systems rely on sensors, actuators, motors, and electronic controls to help maintain vehicle handling and traction.

Electric motors use magnet wire windings to create electromagnetic fields that convert electrical energy into mechanical motion.

Ignition coils use magnet wire windings to transform battery voltage into the high voltage needed to ignite fuel in internal combustion engines.

Power door locks rely on compact motors, solenoids, actuators, relays, and controls to deliver fast and dependable locking and unlocking.

Belt starter generators rely on precisely wound magnet wire to support quick engine starts, energy recovery, and smooth electrical assistance in hybrid vehicle systems.

Horn connections rely on electrical components that create fast, reliable response in compact vehicle systems.

Sunroof and window systems rely on compact motors, switches, sensors, relays, and controls to open and close smoothly.

Power seats use compact motors, actuators, sensors, switches, and controls to adjust position, support, and comfort inside the vehicle cabin.

Power liftgate systems use motors, actuators, sensors, switches, and controls to open and close vehicle cargo areas smoothly and safely.

Power steering systems rely on electric motors, sensors, actuators, and controls to provide responsive steering assistance.

Automotive A/C and heating systems depend on compact, reliable electrical components to manage airflow, temperature, and cabin comfort.

Steering systems use electric motors, sensors, actuators, and controls to provide responsive direction, assistance, and driver support.

ABS coils rely on precisely wound magnet wire to create the electromagnetic force needed to control brake pressure during anti-lock braking events.