SB060032024 – STEPPER MOTOR CONTROLLER SCHEMATIC BLOCK

This schematic block features the MTS62C19A, a dual full H-bridge DC motor driver designed for compact, efficient motor control in robotics, consumer devices, automation peripherals, and general embedded motion systems. Capable of driving two DC motors or a single bipolar stepper motor, the MTS62C19A integrates low-RDS(on) MOSFETs, built-in protection circuitry, and straightforward PWM/logic control within a robust 24-SOP package.

Configured as a breakout-style module, this block provides clearly labeled motor outputs, direction and enable/PWM inputs, and well-organized power routing for quick integration into prototypes. With support for moderate motor currents and a wide operating voltage range, the MTS62C19A is a dependable choice for motion applications that require simplicity and durability without the complexity of advanced configuration interfaces.

The MTS62xx family has been widely used in cost-sensitive and mid-performance motion designs thanks to its long production availability and its reliable, easy-to-drive H-bridge architecture.

Key Features:

• MTS62C19A dual H-bridge motor driver, 24-SOP
• Drives two DC motors or one bipolar stepper motor
• Low-RDS(on) integrated MOSFETs for efficient operation
• Logic-friendly direction and PWM enable inputs
• Built-in thermal shutdown and overcurrent protection
• Wide operating voltage range for versatile motor types
• 24-SOP breakout providing easy access to all motor and control pins
• Suitable for compact, low- to mid-power motion systems

Typical Applications:

• Small robotics and mobile platforms
• Consumer electronics with simple motion requirements
• Automation and peripheral actuation
• Motorized mechanisms, locks, and valves
• Educational kits and prototyping systems
• General embedded motion control

By integrating this Quickboards schematic block, engineers can accelerate motion-system development, reduce design complexity, and rely on a proven dual-H-bridge architecture that delivers stable and predictable motor control performance.