100A Multirotor ESC Power Distribution Battery Board For Quadcopter
100A Multirotor ESC Power Distribution Battery Board For Quadcopter
The 100A Multirotor ESC Power Distribution Battery Board is a high-performance power management solution specifically designed for quadcopters and multirotor systems. This board serves as a centralized power hub, efficiently distributing power from the LiPo battery to the Electronic Speed Controllers (ESCs) and other components, ensuring reliable and efficient operation of the quadcopter.
3S-6S LiPo (11.1V-22.2V)
Up to 100A continuous
Same as input voltage
Up to 10kV
Approximately 45mm x 35mm
Approximately 20g
| This 100A Multirotor ESC Power Distribution Battery Board is designed for use in quadcopters and multirotor systems that require high-current power distribution. It is suitable for a wide range of applications, including |
High-speed quadcopters that require reliable and efficient power distribution.
Quadcopters and multirotor systems used for aerial photography and videography.
Multirotor systems used in search and rescue operations that require high-reliability power distribution.
Always ensure proper installation and connection of the board to prevent electrical shock or fire hazard.
Verify the compatibility of the board with your specific quadcopter or multirotor system before use.
Follow proper safety guidelines when working with electrical components and LiPo batteries.
Component Documentation: 100A Multirotor ESC Power Distribution Battery Board For QuadcopterOverviewThe 100A Multirotor ESC Power Distribution Battery Board is a high-performance power distribution board designed for quadcopters and other multirotor systems. It integrates a power distribution board, battery eliminator circuit (BEC), and 100A high-current electronic speed controllers (ESCs) in a single compact module. This board is ideal for powering quadcopters, drones, and other UAVs that require high-power and efficient power distribution.Features100A high-current rating for each ESC channel
Supports up to 6S LiPo batteries
Built-in battery eliminator circuit (BEC) for powering flight controllers, receivers, and other components
Compact design with a small footprint
High-quality, low-ESR capacitors for improved power filtering
LED indicators for power and fault detectionPinout and ConnectionsThe board has the following connectors and pinouts:ESC Channels: 4 x 3-pin connectors (labeled ESC1-ESC4) for connecting to electronic speed controllers
Battery Input: 2 x 2-pin connectors (labeled B+ and B-) for connecting to the LiPo battery
BEC Output: 1 x 3-pin connector (labeled BEC) for powering flight controllers, receivers, and other components
LED Indicators: 2 x LEDs (labeled PWR and FLT) for power and fault indicationExample Usage### Example 1: Powering a Quadcopter with PX4 Flight ControllerIn this example, we'll demonstrate how to connect the Power Distribution Battery Board to a quadcopter with a PX4 flight controller.Hardware Requirements1 x 100A Multirotor ESC Power Distribution Battery Board
1 x PX4 Flight Controller
1 x Quadcopter frame with 4 x motors and ESCs
1 x 6S LiPo batteryConnection Diagram```
+---------------+
| Power |
| Distribution |
| Battery Board |
+---------------+
|
|
v
+---------------+ +---------------+
| ESC Channel | | ESC Channel |
| 1 (ESC1) | | 2 (ESC2) |
| (Motor 1) | | (Motor 2) |
+---------------+ +---------------+
|
|
v
+---------------+ +---------------+
| ESC Channel | | ESC Channel |
| 3 (ESC3) | | 4 (ESC4) |
| (Motor 3) | | (Motor 4) |
+---------------+ +---------------+
|
|
v
+---------------+
| BEC Output |
| (VCC, GND) |
+---------------+
|
|
v
+---------------+
| PX4 Flight |
| Controller |
+---------------+
```Software ConfigurationIn the PX4 flight controller, configure the motor outputs to match the ESC channel connections. For example, if motor 1 is connected to ESC1, set the motor output to `motor_output = esc1`.### Example 2: Powering a Drone with Arduino Flight ControllerIn this example, we'll demonstrate how to connect the Power Distribution Battery Board to a drone with an Arduino-based flight controller.Hardware Requirements1 x 100A Multirotor ESC Power Distribution Battery Board
1 x Arduino Flight Controller (e.g., Arduino Mega)
1 x Drone frame with 4 x motors and ESCs
1 x 6S LiPo batteryConnection Diagram```
+---------------+
| Power |
| Distribution |
| Battery Board |
+---------------+
|
|
v
+---------------+ +---------------+
| ESC Channel | | ESC Channel |
| 1 (ESC1) | | 2 (ESC2) |
| (Motor 1) | | (Motor 2) |
+---------------+ +---------------+
|
|
v
+---------------+ +---------------+
| ESC Channel | | ESC Channel |
| 3 (ESC3) | | 4 (ESC4) |
| (Motor 3) | | (Motor 4) |
+---------------+ +---------------+
|
|
v
+---------------+
| BEC Output |
| (VCC, GND) |
+---------------+
|
|
v
+---------------+
| Arduino Flight|
| Controller |
+---------------+
```Software ConfigurationIn the Arduino flight controller, use a library such as `AFMotor` to control the ESCs. For example:
```c++
#include <AFMotor.h>AF_DCMotor motor1(ESC1);
AF_DCMotor motor2(ESC2);
AF_DCMotor motor3(ESC3);
AF_DCMotor motor4(ESC4);void setup() {
// Initialize motors
motor1.setSpeed(0);
motor2.setSpeed(0);
motor3.setSpeed(0);
motor4.setSpeed(0);
}void loop() {
// Control motor speeds based on flight control inputs
int speed1 = getFlightControlInput(1);
motor1.setSpeed(speed1);
int speed2 = getFlightControlInput(2);
motor2.setSpeed(speed2);
int speed3 = getFlightControlInput(3);
motor3.setSpeed(speed3);
int speed4 = getFlightControlInput(4);
motor4.setSpeed(speed4);
}
```
Note that the above code is a simplified example and may require modifications based on your specific flight controller and drone configuration.