3.7v 716 Magnetic Micro Coreless CCW Motor for Drone Quadcopter
3.7v 716 Magnetic Micro Coreless CCW Motor for Drone Quadcopter
The 3.7v 716 Magnetic Micro Coreless CCW Motor is a compact, high-performance motor designed specifically for use in drone quadcopters. This motor is a crucial component in the propulsion system of a quadcopter, responsible for generating thrust and stabilizing the aircraft during flight.
The primary function of this motor is to convert electrical energy from the battery into mechanical energy, which is then used to rotate the propeller attached to the motor shaft. The motor's rotation produces a downward airflow, generating the necessary lift and thrust to sustain flight.
The motor is designed to operate within a voltage range of 3.7V, making it suitable for use with most quadcopter battery configurations.
The motor features a coreless design, which eliminates the need for a traditional iron core. This design improvement reduces the motor's weight, increases efficiency, and provides a higher power-to-weight ratio.
The motor's compact size (716) makes it an ideal choice for small to medium-sized quadcopters, where space and weight are critical factors.
The motor is designed to rotate in a counter-clockwise direction, which is essential for maintaining stability and balance in a quadcopter.
The motor's design and construction ensure high efficiency, resulting in longer flight times and reduced energy consumption.
The motor is capable of achieving high RPM (revolutions per minute), providing rapid acceleration and deceleration, making it suitable for agile and responsive quadcopter performance.
The motor's design and construction minimize vibration, reducing the risk of mechanical stress and ensuring smoother flight performance.
The motor features a durable construction, with a robust casing and high-quality bearings, ensuring reliable operation and extended lifespan.
The motor's compact size and coreless design make it incredibly lightweight, reducing the overall weight of the quadcopter and enhancing its agility.
The motor is designed to be compatible with a wide range of quadcopter frames, electronic speed controllers (ESCs), and propellers, making it a versatile component for various drone configurations.
3.7V
[Insert current rating]
[Insert power rating]
[Insert RPM range]
[Insert torque rating]
[Insert weight]
[Insert dimensions]
[Insert shaft diameter]
[Insert mounting hole pattern and diameter]
| The 3.7v 716 Magnetic Micro Coreless CCW Motor is ideal for use in |
Drone quadcopters
Robotics
Aerial photography and videography
Racing drones
FPV (First-Person View) drones
Model aircraft
The 3.7v 716 Magnetic Micro Coreless CCW Motor is a high-performance component designed to deliver efficient and reliable operation in drone quadcopters. Its compact size, high efficiency, and high RPM capabilities make it an ideal choice for a wide range of quadcopter applications.
Component Documentation: 3.7v 716 Magnetic Micro Coreless CCW Motor for Drone QuadcopterOverviewThe 3.7v 716 Magnetic Micro Coreless CCW Motor is a high-performance motor designed specifically for drone quadcopters. Its compact size, low weight, and high efficiency make it an ideal choice for small to medium-sized drones. This motor features a coreless design, which reduces energy loss and increases overall efficiency.Technical SpecificationsVoltage: 3.7V
Current: 1.5A
Power: 5.55W
Speed: 8500rpm
Torque: 6.5g/cm
Dimensions: 12mm x 16mm x 6mm
Weight: 6.5gPinoutThe motor has three pins:VCC (Red): Positive voltage input
GND (Black): Ground
SIG (Yellow): Signal input (ESC control signal)Code Examples### Example 1: Basic Motor Control using ArduinoIn this example, we will use an Arduino board to control the motor speed using a PWM signal.```c
const int motorPin = 9; // Pin 9 for motor signal
int motorSpeed = 0; // Initialize motor speed to 0void setup() {
pinMode(motorPin, OUTPUT);
}void loop() {
// Increase motor speed from 0 to 255 (maximum)
for (motorSpeed = 0; motorSpeed <= 255; motorSpeed++) {
analogWrite(motorPin, motorSpeed);
delay(10);
}
// Decrease motor speed from 255 to 0
for (motorSpeed = 255; motorSpeed >= 0; motorSpeed--) {
analogWrite(motorPin, motorSpeed);
delay(10);
}
}
```### Example 2: Motor Control using ESP32 and ESP-IDFIn this example, we will use an ESP32 microcontroller to control the motor speed using a PWM signal.```c
#include <esp_pwm.h>#define MOTOR_PIN 18 // Pin 18 for motor signalvoid setup() {
// Configure motor pin as output
gpio_config_t motorPinConfig;
motorPinConfig.intr_type = GPIO_INTR_DISABLE;
motorPinConfig.mode = GPIO_MODE_OUTPUT;
motorPinConfig.pin_bit_mask = (1ULL << MOTOR_PIN);
gpio_config(&motorPinConfig);// Initialize PWM
pwm_config_t pwmConfig;
pwmConfig.channel = 0;
pwmConfig.freq = 50; // 50Hz PWM frequency
pwmConfig.resolution = PWM_RESOLUTION_BIT(10);
pwm_init(&pwmConfig);// Set motor speed to 50%
pwm_set_duty(50);
}void loop() {
// Increase motor speed from 50% to 100%
for (uint8_t duty = 50; duty <= 100; duty++) {
pwm_set_duty(duty);
delay(10);
}
// Decrease motor speed from 100% to 50%
for (uint8_t duty = 100; duty >= 50; duty--) {
pwm_set_duty(duty);
delay(10);
}
}
```NotesMake sure to use a proper ESC (Electronic Speed Controller) to control the motor, as it requires a PWM signal to operate.
Always follow proper safety precautions when working with electrical components and drones.
The code examples provided are for illustration purposes only and may require modifications to suit your specific use case.