Motor Driver Boards, Modules

Part Number	Description / PDF	Quantity
MADHT1105NA1 Panasonic	SERVO DRIVER 10A 120V LOAD	0
MBEG1E1BCVC Panasonic	AMPLIFIER BLDC 120V 130W FOR 90M	0
MEDLN83BE Panasonic	A6 DRIVE E FRAME ETHERCAT NO STO	6
MFDHTA464L01 Panasonic	LINEAR MOTOR DRIVE	0
MFDLNA3SG Panasonic	SERVO DRIVE A6N 200V 3KW 100A	0
MCDHT3520L01 Panasonic	DRIVE SINGLE OR 3 PHASE	0
M1G9A1V1X Panasonic	INVERTER 60/90W SNGL PHASE 100V	0
MEDHT7364B01 Panasonic	ETHERCAT DRIVE	0
MADHT1505BA1 Panasonic	ETHERCAT DRIVE	0
MFDHTA390LA1 Panasonic	DRIVE SINGLE OR 3 PHASE	0
MBEG5A1BCP Panasonic	AMPLIFIER BLDC 120V 50W FOR 90M	0
MADLT11SF Panasonic	SERVO DRIVE A6 RS485 8A 100V W/	1
DVUS940Y Panasonic	EX TYPE SPEED CONTROLLER	0
MBEK5A1BCV Panasonic	AMPLIFIER BRSHL 100V 50W FOR KV	0
MDDLT55NF Panasonic	SERVO DRIVE A6 100V 400W RTEX	0
MADHT1507LA1 Panasonic	DRIVE SINGLE OR 3 PHASE	0
MHDHTC3B4BA1 Panasonic	ETHERCAT DRIVE	0
MFDLNB3NE Panasonic	SERVO DRIVE A6 200V 5KW RTEX	0
MCDLT31BF Panasonic	SERVO DRIVE A6 ETHERCAT C FRAME	6
MCDLT35BF Panasonic	SERVO DRIVE A6 ETHERCAT B FRAME	1

Motor Driver Boards, Modules

1. Overview

Motor driver boards/modules are electronic devices that act as intermediaries between control systems (e.g., microcontrollers) and motors. They convert low-power control signals into high-power electrical currents to drive motors efficiently. These components enable precise regulation of motor speed, direction, torque, and position. Their importance spans across automation, robotics, industrial machinery, and consumer electronics, where accurate motion control is critical for system performance.

2. Main Types & Functional Classification

Type	Functional Features	Application Examples
H-Bridge Drivers	Bi-directional control using transistor bridges, basic speed regulation	DC motor direction control in robotic arms
Stepper Motor Drivers	Microstepping, position accuracy, torque control	3D printers, CNC machines
Servo Controllers	Feedback loop integration, precise angular positioning	RC vehicles, industrial automation
Brushless DC (BLDC) Drivers	Electronic commutation, high efficiency, variable speed	Drones, HVAC systems
Integrated Smart Modules	Embedded control logic, thermal protection, communication interfaces	Autonomous vehicles, medical pumps

3. Structure & Components

A typical motor driver contains:

Power Transistors: MOSFETs or IGBTs for switching high currents
Control IC: Processes PWM signals and manages commutation
Heat Sink: Aluminum-based PCB or external fins for thermal management
Protection Circuits: Overcurrent, overtemperature, and voltage spike suppression
Connectors: Screw terminals for motor wiring and control interfaces (UART/SPI)

4. Key Technical Specifications

Parameter	Importance
Max Continuous Current	Determines motor power capacity (e.g., 5A for NEMA 23 stepper)
Voltage Range	Must match motor supply (e.g., 8-45V for industrial BLDC drivers)
Efficiency (Typical >90%)	Impacts thermal performance and energy consumption
Control Resolution	Microstepping levels (e.g., 1/16-step for precision engravers)
Protection Features	Overcurrent/voltage, thermal shutdown (critical for reliability)
Communication Protocols	CAN, Modbus support for industrial IoT integration

5. Application Fields

Industrial: CNC machining centers, conveyor belt systems
Consumer: Smart home appliances, gaming consoles
Medical: MRI scanner positioning, insulin pumps
Automotive: Electric vehicle powertrains, EPS systems
Robotics: Collaborative robot joint control

6. Leading Manufacturers & Products

Manufacturer	Representative Product	Key Specifications
TI (Texas Instruments)	DRV8825	2.5A RMS, 1/32 microstepping, thermal shutdown
STMicroelectronics	L6470	3.0A peak, SPI interface, stall detection
ON Semiconductor	MC33926	3.0A continuous, bidirectional control
Maxon Motor	EPOS4 Compact	50A peak, EtherCAT interface, encoder feedback

7. Selection Guidelines

Match driver current/voltage ratings to motor specifications
Select control mode (PWM, analog, digital) based on system requirements
Consider environmental factors (temperature, vibration)
Verify required protection features (IP rating for harsh environments)
Evaluate integration needs (footprint, communication protocols)
Balance cost vs. performance for volume production

8. Industry Trends

Emerging trends include:

Integration: System-on-Chip (SoC) drivers combining control and power stages
Smart Diagnostics: Built-in current sensing and predictive maintenance algorithms
Wide Bandgap Semiconductors: SiC/GaN transistors enabling higher switching frequencies
Wireless Control: Bluetooth/Wi-Fi-enabled drivers for IoT applications
Miniaturization: Chip-scale packaging for space-constrained applications