Round Toy DC Motor Dual Shaft High RPM Documentation

Component Name

Round Toy DC Motor Dual Shaft High RPM

Overview

The Round Toy DC Motor Dual Shaft High RPM is a compact, high-performance DC motor designed for use in IoT projects, robotics, and other applications requiring precise control and high-speed rotation. This motor features a dual-shaft design, enabling the connection of multiple components or mechanisms, making it an ideal choice for a wide range of applications.

Functionality

The Round Toy DC Motor Dual Shaft High RPM is a brush-equipped DC motor that converts electrical energy into mechanical energy. It operates on a direct current (DC) power supply and provides a high-speed rotation of up to [insert max RPM] revolutions per minute. The motor's dual-shaft design allows for the connection of two separate components or mechanisms, enabling the motor to drive multiple loads simultaneously.

Key Features

Dual Shaft Design: The motor features two parallel shafts, each with a diameter of [insert diameter], allowing for the connection of two separate components or mechanisms.
High RPM: The motor is capable of achieving high speeds of up to [insert max RPM] revolutions per minute, making it suitable for applications requiring rapid motion.
Compact Design: The motor has a compact, cylindrical shape with a diameter of [insert diameter] and a length of [insert length], making it ideal for use in space-constrained applications.
Low Voltage Operation: The motor operates on a low voltage DC power supply, typically ranging from [insert min voltage] to [insert max voltage] VDC.
High Torque: The motor produces a high torque output, enabling it to drive small to medium-sized loads with ease.
Brush-Equipped: The motor uses brushes to maintain contact between the stationary and rotating parts, ensuring smooth and efficient operation.
Low Noise: The motor operates with a low noise level, making it suitable for use in noise-sensitive applications.
Durable Construction: The motor features a durable construction, with a metal casing and high-quality bearings, ensuring a long operational lifespan.

Model

[Insert model number]

Rated Voltage

[Insert rated voltage] VDC

Rated Current

[Insert rated current] A

Max RPM

[Insert max RPM] revolutions per minute

Torque

[Insert torque] Nm

Shaft Diameter

[Insert shaft diameter] mm

Shaft Length

[Insert shaft length] mm

Motor Diameter

[Insert motor diameter] mm

Motor Length

[Insert motor length] mm

Weight

[Insert weight] grams

Applications

The Round Toy DC Motor Dual Shaft High RPM is suitable for a wide range of applications, including

IoT projects

Robotics

RC models

Automation systems

Medical devices

Consumer electronics

Precautions

Handle the motor with care to avoid damage to the bearings or electrical components.

Ensure proper mounting and alignment of the motor to prevent vibration and noise.

Use a suitable power supply and motor controller to avoid overheating or damage to the motor.

Avoid operating the motor in extreme temperatures or humidity.

Pin Configuration

Component Overview:
The Round Toy DC Motor Dual Shaft High RPM is a high-performance DC motor designed for IoT and robotics applications. It features a compact round design, dual shafts, and high RPM capabilities, making it suitable for applications requiring precise control and high-speed operation.
Pin Description:
The motor has a total of 3 pins, each serving a specific purpose. Here's a breakdown of each pin:
Pin 1: VCC (Positive Power Supply)
Function: Provides positive power supply to the motor
Voltage Range: 3V to 12V (recommended operating voltage: 6V to 9V)
Current Rating: Depends on the motor's specifications, but typically up to 1A
Pin 2: GND (Ground)
Function: Provides a ground connection for the motor
Purpose: Completes the electrical circuit and provides a return path for the motor's current
Pin 3: Signal (Control Input)
Function: Receives control signals from a microcontroller or other control devices to operate the motor
Signal Type: Digital signal (0V to VCC)
Purpose: Controls the motor's rotation direction, speed, and brake functionality
Pin Connection Structure:
To connect the pins, follow this structure:
1. VCC (Pin 1) Connect to:
Positive terminal of a power supply (e.g., a battery or a DC power adapter)
Ensure the voltage matches the recommended operating range (6V to 9V)
2. GND (Pin 2) Connect to:
Negative terminal of the power supply (e.g., a battery or a DC power adapter)
Ground pin of a microcontroller or other control devices
3. Signal (Pin 3) Connect to:
Digital output pin of a microcontroller or other control devices
Controller's output should be within the motor's specified signal range (0V to VCC)
Important Notes:
Make sure to use suitable wire gauges and connectors to handle the motor's current and voltage requirements.
Avoid connecting the motor to a power supply with a voltage higher than 12V, as it may damage the motor.
Use a suitable motor driver or controller to regulate the motor's speed and direction, if necessary.
Additional Tips:
Before connecting the motor, ensure your control device or microcontroller is properly configured to output the required control signals.
Use a breadboard or a PCB to connect the motor and other components, ensuring a clean and organized layout.
If you're new to working with DC motors, consider using a motor driver or a pre-built motor control module to simplify the connection process.

Code Examples

Component Documentation: Round Toy DC Motor Dual Shaft High RPM

Overview

The Round Toy DC Motor Dual Shaft High RPM is a compact, high-performance DC motor designed for small robotic and IoT applications. It features a dual shaft design, allowing for the connection of two propellers or wheels, and is capable of achieving high RPM levels.

Specifications

Operating Voltage: 3V - 12V
 Rated Speed: 12,000 RPM
 Stall Current: 1.2A
 No-Load Current: 0.1A
 Shaft Diameter: 2mm
 Motor Dimensions: 22mm (diameter) x 15mm (length)

Arduino Code Example: Basic Motor Control

In this example, we'll use an Arduino Uno board to control the motor's speed and direction.

```cpp
const int motorPin1 = 9;  // Pin for motor control (PWM)
const int motorPin2 = 10; // Pin for motor control (Direction)

void setup() {
  pinMode(motorPin1, OUTPUT);
  pinMode(motorPin2, OUTPUT);
}

void loop() {
  // Set motor speed to 50% and turn it clockwise
  analogWrite(motorPin1, 128); // 0-255 range for PWM
  digitalWrite(motorPin2, HIGH);

delay(1000);

// Set motor speed to 100% and turn it counterclockwise
  analogWrite(motorPin1, 255);
  digitalWrite(motorPin2, LOW);

delay(1000);
}
```

Raspberry Pi Code Example: Python Motor Control using RPi.GPIO

In this example, we'll use a Raspberry Pi board to control the motor's speed and direction using the RPi.GPIO library.

```python
import RPi.GPIO as GPIO
import time

# Set up GPIO pins for motor control
GPIO.setmode(GPIO.BCM)
motor_pin1 = 18
motor_pin2 = 23
GPIO.setup(motor_pin1, GPIO.OUT)
GPIO.setup(motor_pin2, GPIO.OUT)

while True:
    # Set motor speed to 50% and turn it clockwise
    GPIO.PWM(motor_pin1, 50) # 0-100 range for PWM
    GPIO.output(motor_pin2, GPIO.HIGH)
    time.sleep(1)

# Set motor speed to 100% and turn it counterclockwise
    GPIO.PWM(motor_pin1, 100)
    GPIO.output(motor_pin2, GPIO.LOW)
    time.sleep(1)
```

Note: In both examples, you'll need to connect the motor's positive wire to the motor control pin (e.g., pin 9 for Arduino) and the negative wire to the direction pin (e.g., pin 10 for Arduino). The motor's shafts should be connected to the desired propellers or wheels. Additionally, please ensure to use a suitable power source and motor driver (if required) to avoid damaging the motor or your board.