A servo motor is a precision control motor used to achieve precise positioning and speed control for rotational or linear motion. Its core lies in its closed-loop control system, which uses feedback mechanisms (such as encoders or Hall sensors) to monitor and adjust the motor's position and speed in real time. This makes it ideal for tasks requiring precise navigation, such as warehouse robots or service robots.

High precision: Servo motors can provide micron-level positioning accuracy, making them suitable for tasks requiring precise navigation or operation, such as industrial automation or medical robots.

Quick response: Their closed-loop control system ensures rapid acceleration and deceleration response, making them suitable for dynamic environments.

Energy efficiency: Servo motors only consume power when moving, making them suitable for battery-powered mobile robots.

Compact design: Their miniaturization and high torque characteristics make them suitable for robot platforms with limited space.

An electric steering motor is a motor specifically designed to control the steering of mobile robots. It typically achieves directional control by precisely adjusting the angle of the wheels, making it suitable for robots that require complex path planning. It is commonly found in robot chassis that use traditional steering systems, such as Ackermann steering.

High-precision control: Through closed-loop control and feedback sensors (such as encoders or Hall sensors), the servo motor can achieve micron-level steering precision, making it suitable for tasks that require precise navigation.

High adaptability: Compatible with various steering mechanisms, such as Ackermann steering or omnidirectional movement, to meet diverse application requirements.

Compact design: Highly integrated, easy to install and maintain, suitable for robot platforms with limited space.

Reliability: Servo motors are crucial in service-oriented robot applications, especially in scenarios requiring high uptime.