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E-L6207N

E-L6207N

Product Overview

Category

E-L6207N belongs to the category of integrated circuits (ICs) specifically designed for motor control applications.

Use

This IC is primarily used for driving and controlling stepper motors in various electronic devices and industrial automation systems.

Characteristics

  • E-L6207N is a high voltage, high current, dual full-bridge driver.
  • It operates with a wide range of supply voltages, making it suitable for different motor types.
  • The IC incorporates protection features such as thermal shutdown and overcurrent detection.
  • It offers microstepping capability, allowing precise control of motor movements.
  • E-L6207N is designed to minimize power dissipation and maximize efficiency.

Package

The E-L6207N IC is available in a compact and industry-standard PowerSO package. This package ensures efficient heat dissipation and ease of integration into motor control circuitry.

Essence

The essence of E-L6207N lies in its ability to provide reliable and efficient motor control solutions, enabling smooth and accurate motion control in various applications.

Packaging/Quantity

The E-L6207N IC is typically sold in reels or tubes, containing a specified quantity of units per package. The exact packaging and quantity may vary depending on the supplier.

Specifications

  • Supply Voltage Range: 8V to 52V
  • Output Current: Up to 2.8A per bridge
  • Maximum Output Voltage: 52V
  • Logic Inputs: CMOS/TTL compatible
  • Operating Temperature Range: -40°C to +150°C
  • Package Type: PowerSO-36

Detailed Pin Configuration

The E-L6207N IC has a total of 36 pins, arranged as follows:

  1. VCP - Charge Pump Capacitor Positive Supply Voltage
  2. CP1 - Charge Pump Capacitor 1
  3. CP2 - Charge Pump Capacitor 2
  4. VCP - Charge Pump Capacitor Positive Supply Voltage
  5. GND - Ground
  6. VBB - High Side Floating Supply Voltage
  7. VBB - High Side Floating Supply Voltage
  8. VREF - Reference Voltage Output
  9. REF - Reference Voltage Input
  10. OUT1A - Bridge 1 Output A
  11. OUT1B - Bridge 1 Output B
  12. OUT2A - Bridge 2 Output A
  13. OUT2B - Bridge 2 Output B
  14. GND - Ground
  15. VCP - Charge Pump Capacitor Positive Supply Voltage
  16. CP1 - Charge Pump Capacitor 1
  17. CP2 - Charge Pump Capacitor 2
  18. VCP - Charge Pump Capacitor Positive Supply Voltage
  19. GND - Ground
  20. VBB - High Side Floating Supply Voltage
  21. VBB - High Side Floating Supply Voltage
  22. VREF - Reference Voltage Output
  23. REF - Reference Voltage Input
  24. OUT1A - Bridge 1 Output A
  25. OUT1B - Bridge 1 Output B
  26. OUT2A - Bridge 2 Output A
  27. OUT2B - Bridge 2 Output B
  28. GND - Ground
  29. VCP - Charge Pump Capacitor Positive Supply Voltage
  30. CP1 - Charge Pump Capacitor 1
  31. CP2 - Charge Pump Capacitor 2
  32. VCP - Charge Pump Capacitor Positive Supply Voltage
  33. GND - Ground
  34. VBB - High Side Floating Supply Voltage
  35. VBB - High Side Floating Supply Voltage
  36. VREF - Reference Voltage Output

Functional Features

  • Dual full-bridge configuration for driving two stepper motors simultaneously.
  • Microstepping capability for precise motor control and smooth motion.
  • Overcurrent detection and thermal shutdown protection for enhanced safety and reliability.
  • Wide supply voltage range allows compatibility with various motor types.
  • High output current capability enables driving of high torque motors.

Advantages and Disadvantages

Advantages

  • Efficient and reliable motor control solution.
  • Microstepping capability for precise motion control.
  • Protection features enhance safety and reliability.
  • Wide supply voltage range for compatibility with different motor types.

Disadvantages

  • Limited to stepper motor applications.
  • Requires additional external components for complete motor control system implementation.

Working Principles

The E-L6207N IC utilizes a dual full-bridge configuration to drive stepper motors. It receives control signals from a microcontroller or other control circuitry, which determine the direction and speed of motor rotation. The IC generates the necessary current and voltage levels to drive the motor windings, enabling precise control over motor movements. By utilizing microstepping techniques, the IC can achieve smoother motion and finer positioning accuracy.

Detailed Application Field Plans

The E-L6207N IC finds extensive application in various fields, including

Перечислите 10 распространенных вопросов и ответов, связанных с применением E-L6207N в технических решениях.

Sure! Here are 10 common questions and answers related to the application of E-L6207N in technical solutions:

  1. Q: What is E-L6207N? A: E-L6207N is a dual full-bridge driver IC designed for driving bipolar stepper motors or bidirectional DC motors.

  2. Q: What is the maximum voltage rating of E-L6207N? A: The maximum voltage rating of E-L6207N is typically 52V.

  3. Q: How many motors can be controlled using E-L6207N? A: E-L6207N can control up to two motors simultaneously.

  4. Q: What is the maximum current rating of E-L6207N? A: The maximum current rating of E-L6207N is typically 2.8A per bridge.

  5. Q: Can E-L6207N handle microstepping? A: Yes, E-L6207N supports microstepping up to 1/16th step resolution.

  6. Q: Does E-L6207N have built-in protection features? A: Yes, E-L6207N includes various protection features like thermal shutdown, overcurrent detection, and undervoltage lockout.

  7. Q: What is the operating temperature range of E-L6207N? A: The operating temperature range of E-L6207N is typically -40°C to +150°C.

  8. Q: Can E-L6207N be used with both unipolar and bipolar stepper motors? A: No, E-L6207N is specifically designed for bipolar stepper motors.

  9. Q: Is E-L6207N compatible with Arduino or other microcontrollers? A: Yes, E-L6207N can be easily interfaced with microcontrollers like Arduino using digital I/O pins.

  10. Q: Are there any application examples for E-L6207N? A: Yes, E-L6207N can be used in various applications such as 3D printers, CNC machines, robotics, and industrial automation systems.

Please note that the answers provided here are general and may vary depending on the specific implementation and requirements of your technical solution.