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To accommodate the motor's compact size, the magnet employs a small trapezoidal structure that provides a stable magnetic field. When current flows through the motor windings to generate an induced magnetic field, the interaction between these two fields drives the wiper system to perform the wiping action. The magnetic field strength and stability of the magnet directly determine the power output efficiency and operational smoothness of the wiper motor.

Permanent magnets achieve efficient conversion of mechanical energy into electrical energy by generating a stable, high-intensity magnetic field within the motor. The product primarily utilizes block-shaped permanent magnets.

Permanent magnets drive the motor by establishing a stable, high-density magnetic field within the motor, providing continuous power to the vehicle. The product predominantly utilizes block-shaped magnets, and the application of segmented assembly techniques effectively reduces eddy current losses, thereby enhancing motor efficiency.

The permanent magnetic field of the magnet interacts with the alternating magnetic field generated by the energized windings, converting it into torque that drives the rotor. This torque is transmitted through the drive mechanism to provide steering assistance to the steering wheel, making steering operations lighter and more precise.

Most systems employ large rectangular magnets to drive the air conditioning compressor and blower motor for regulating cabin temperature. The magnetic properties of these magnets—such as magnetic flux density and stability—directly determine motor efficiency, power consumption, and operational stability, playing a critical role in overall vehicle range and air conditioning temperature control performance.

The permanent magnet establishes a stable magnetic field within the motor. When the motor receives a braking signal and the windings are energized to generate an induced magnetic field, the interaction between these two fields converts into torque. This torque drives the brake actuator to execute braking. The magnetic properties of the permanent magnet directly influence the brake motor's response speed, braking force precision, and operational stability, ensuring a reliable and efficient braking process.

The permanent magnet interacts with the windings to provide both radial and axial suspension forces, enabling frictionless support. It also contributes to generating electromagnetic torque to drive wheel rotation. Simultaneously, by maintaining magnetic field stability to ensure suspension, it helps enhance motor efficiency and driving safety.