High performance micro gear motor

Functional principle of micro motors

Micro motors present a compelling array of selling points that distinguish them in the realm of electric motors. Their foremost attribute lies in their compact size, rendering them exceptionally well-suited for applications where space constraints are a critical consideration. Complementing this compactness is their low weight, a characteristic that proves advantageous in devices where minimizing weight is paramount. Beyond their physical attributes, micro motors boast high efficiency, facilitating effective energy conversion and thereby enhancing overall performance. What sets them apart further is their capacity for precision control, making them ideal for applications demanding accuracy and fine motor movements. Moreover, a notable feature is their low power consumption, a deliberate design choice that not only aligns with contemporary energy-efficient practices but also contributes to the overall sustainability of devices they power. In summary, the selling points of micro motors converge on their compactness, lightweight design, efficiency, precision control, and low power consumption, collectively making them pivotal components across a diverse range of technological applications.

What makes ZHAOWEI micro motors unique

In DC micro motors, commutation can occur through a mechanical sliding contact (with brushes) or electronically (brushless).

Brushed DC-motors from ZHAOWEI ailable with graphite or precious metal commutation. Graphite commutation is particularly robust and is ideally suited to dynamic high-performance applications. Precious metal commutation makes

extremely small DC motors possible. Brushed micro motors are very easy to control.

Brushless DC motors are adopted with ironless slotless motors. This innovative rotor structure completely eliminates electrical energy losses caused by eddy currents in the core, simultaneously significantly reducing its weight and rotational inertia. This reduction contributes to a substantial decrease in mechanical energy consumption within the rotor itself. The structural change in the rotor brings about a profound improvement in the operational characteristics of the electric motor. Not only does it exhibit outstanding energy-saving features, but, more importantly, it possesses control and traction characteristics that are unattainable by core-based electric motors.