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AL-E692B BLDC MOTOR CONTROL TRAINER WITH GUI INTERFACE 400W

Project Information

  • Category: ROBOTICS AND MECHATRONICS
  • Sub Category: PLC TRAINER
  • Model Number: AL-E692B

Description

AL-E692B BLDC MOTOR CONTROL TRAINER WITH GUI INTERFACE 400W

AL-E692B – BLDC Motor with Control Trainer

Product Code: AL-E692B

Product Category: Electrical Machines and Motor Control Training Equipment

1. Product Overview

The AL-E692B BLDC Motor with Control Trainer is an educational training system designed to demonstrate the operating principles, electronic commutation, speed control, direction control, and performance measurement of a Brushless DC (BLDC) motor. The trainer incorporates a motor driver circuit, PWM control interface, Hall sensor feedback connections, digital voltage and current meters, and an RPM measurement facility.

The system is mounted on a rigid aluminum-profile frame with a front-facing instructional panel, clearly identified test points, and circuit diagrams for practical learning.

2. Detailed Technical Specifications

S. No.

Parameter

Technical Specification

1

Product Name

BLDC Motor with Control Trainer

2

Model Number

AL-E692B

3

Brand

Ambeylabs®

4

Machine Type

Brushless DC Motor

5

Motor Control

Electronic commutation using a motor driver

6

Power Supply Section

Single-phase supply input, as indicated on the panel

7

DC Power Supply

SMPS, 24 V, 10 A, as indicated

8

Motor Driver

Electronic three-phase motor driver circuit

9

Switching Control

PWM-based motor speed control

10

PWM Control

Variable PWM control provided

11

Direction Control

Forward/Reverse control

12

Motor Enable

Dedicated enable input

13

Feedback System

Hall sensor feedback

14

Hall Sensor Inputs

Three Hall sensor signal connections

15

Controller Interface

Arduino Uno interface board, as shown

16

Voltage Measurement

Digital AC voltmeter

17

Current Measurement

Digital AC ammeter

18

Speed Measurement

RPM meter with probe connection

19

Test Connections

Color-coded 4 mm banana-type terminals, as shown

20

Protection

Fuse provided in the power/control circuit

21

Frame Construction

Aluminum-profile support structure

22

Front Panel

Printed instructional panel with circuit diagrams and connection points

23

Mounting

Bench-mounted trainer with supporting feet

24

Intended Application

Electrical engineering laboratories and motor-control training

Note: Ratings and features above are based on the supplied product image. Motor rated power, rated speed, exact meter ranges, and controller specifications were not legible or explicitly stated.

3. Main Sections and Features

A. Power Supply Section

  • Single-phase AC supply input provision, as labeled on the panel.
  • Switched supply indication using a power indicator.
  • 24 V, 10 A switched-mode power supply (SMPS), as indicated.
  • Fuse protection for the relevant circuit.
  • Clearly identified supply connections for laboratory use.

B. BLDC Motor Driver Section

  • Electronic driver circuitry for controlling the BLDC motor.
  • Three-phase switching arrangement for energizing the motor windings.
  • PWM input connections for controlling switching duty cycle.
  • Motor enable input for activating or disabling the drive.
  • Forward/Reverse input for direction-control demonstrations.
  • Clearly marked motor-driver and control-signal connections.

C. PWM Control Section

  • Variable PWM control for studying motor-speed variation.
  • Dedicated PWM signal terminal.
  • Ground reference terminal.
  • PWM signal connections identified on the panel.
  • Provision to investigate the effect of duty cycle on motor response.

D. Hall Sensor Feedback Section

  • Three Hall sensor signal inputs identified as Hall Sensor 1, Hall Sensor 2, and Hall Sensor 3.
  • Sensor supply and ground reference connections, as indicated.
  • Provision for observing rotor-position feedback signals.
  • Demonstration of electronic commutation based on rotor-position information.

E. Controller Interface

  • Arduino Uno interface board mounted on the front panel.
  • Connector provision for controller-based experimentation.
  • Support for studying PWM generation and digital control signals.
  • Interface for examining direction-control and motor-enable logic, subject to the implemented controller program.

F. Measurement Section

·        Digital Voltage Meter

Digital display for voltage measurement through the provided input terminals. The exact measurement range and whether the instrument is configured for AC or DC measurement should be confirmed from the meter specification.

·        Digital Current Meter

Digital current display with input terminals for measuring current through the designated measurement circuit. The exact range and measurement method should be verified.

·        RPM Meter

Speed measurement unit with a probe connection for demonstrating motor rotational speed. The sensor type and measurable RPM range are to be confirmed.

4. Experiments and Learning Objectives

The trainer is suitable for the following experiments:

  1. Study of BLDC motor construction and operating principles.
  2. Identification of the motor driver, controller, and feedback connections.
  3. Study of electronic commutation in a BLDC motor.
  4. Speed control using pulse-width modulation (PWM).
  5. Study of the relationship between PWM duty cycle and motor speed.
  6. Forward and reverse direction control.
  7. Studies of the motor enable function.
  8. Observation of Hall sensor feedback signals.
  9. Study of rotor-position detection using three Hall sensors.
  10. Measurement of motor speed using the RPM meter.
  11. Study of motor voltage and current under different operating conditions.
  12. Understanding the role of the electronic driver in energizing the motor phases.
  13. Introduction to microcontroller-based motor control using an Arduino-compatible interface.
  14. Troubleshooting of motor-control and feedback signal connections.

5. Working Principle

A Brushless DC motor uses electronic switching instead of mechanical brushes and a commentator. The electronic driver energizes the motor phases in a sequence that produces a rotating magnetic field. The permanent-magnet rotor follows this field and generates mechanical rotation.

Hall sensors detect rotor position and provide feedback to the controller. The controller uses this information to determine the appropriate switching sequence for the motor phases.

Motor speed can be adjusted by changing the PWM duty cycle supplied to the driver. The forward/reverse input changes the phase-commutation sequence to reverse the direction of rotation, provided the motor driver and control program support this function.

6. Mechanical Construction

  • Rigid aluminum-profile frame.
  • Bench-mounted construction with supporting feet.
  • Front-mounted panel with printed circuit diagrams and terminal labels.
  • Color-coded terminals for easy identification of control and measurement connections.
  • Clearly separated power, driver, feedback, and measurement sections.
  • Components arranged for convenient laboratory access and demonstration.

7. Safety and Operating Requirements

  • Operate the trainer using the supply ratings confirmed by the manufacturer.
  • Verify the AC input requirement before connecting the supply; the image's supply label should be checked against the actual unit.
  • Ensure correct motor phase, Hall sensor, and controller connections before energizing the system.
  • Use appropriate fuse protection and electrical safety procedures.
  • Do not change motor wiring while the system is powered.
  • Keep rotating motor parts guarded during operation.
  • Use the trainer under qualified laboratory supervision.

OPTIONAL ACCESSORIES:

·   PC/LAPTOP (Not provided with trainer kit)

Technical Details