Stufin
Home Quick Cart Profile

Parallel charging Board for 6 packs 2~6S

Buy Now on Stufin

Component Name

Parallel Charging Board for 6 Packs 2~6S

Overview

The Parallel Charging Board for 6 Packs 2~6S is a specialized circuit board designed to facilitate simultaneous charging of up to six lithium-ion (Li-ion) or lithium-polymer (Li-po) battery packs with 2~6 cells each. This board is an essential component for battery management systems in various applications, including robotics, drones, electric vehicles, and renewable energy systems.

Functionality

The primary function of the Parallel Charging Board is to allow multiple battery packs to be charged simultaneously, while ensuring safe and balanced charging conditions. The board distributes the charging current efficiently, preventing overheating, overcharging, and undercharging of individual cells.

Key Features

  • Multiple Battery Pack Support: The board supports up to six battery packs, each with 2~6 cells, making it an ideal solution for applications requiring high power density and reliability.
  • Parallel Charging: The board enables parallel charging of all connected battery packs, reducing the overall charging time and increasing the efficiency of the charging process.
  • Cell Balancing: The board incorporates cell balancing functionality, which ensures that each cell within a pack is charged to the same voltage level, preventing overcharging or undercharging of individual cells.
  • Overcharge Protection: The board features overcharge protection, which prevents damage to the battery packs by disconnecting the charging circuit when any cell reaches its maximum voltage threshold.
  • Short-Circuit Protection: The board includes short-circuit protection to prevent damage to the battery packs or the charging circuit in the event of a short circuit.
  • High-Current Capability: The board is designed to handle high charging currents, making it suitable for applications requiring rapid charging.
  • LED Indicators: The board features LED indicators to provide visual feedback on the charging status of each battery pack.
  • Compact Design: The board is compactly designed, making it easy to integrate into tight spaces and reducing the overall system footprint.
  • Compatibility: The board is compatible with a wide range of charging sources, including DC power supplies, wall adapters, and solar panels.
  • Operating Temperature: The board is designed to operate within a wide temperature range, ensuring reliable performance in various environmental conditions.

Input Voltage

12V-18V DC

Output Voltage

2~6S Li-ion/Li-po battery packs

Output Current

Up to 6A per channel (dependent on charging source)

Cell Balancing Accuracy

0.01V

Operating Temperature

-20C to 40C (-4F to 104F)

Dimensions

100mm x 50mm x 20mm (3.94in x 1.97in x 0.79in)

Applications

The Parallel Charging Board for 6 Packs 2~6S is suitable for various applications, including

Robotics and automation systems

Drones and unmanned aerial vehicles (UAVs)

Electric vehicles and hybrid electric vehicles

Renewable energy systems, such as solar and wind power systems

Industrial power tools and equipment

Datasheet

Provides detailed technical specifications, dimensions, and operating conditions.

User Manual

Offers step-by-step instructions for installation, configuration, and operation of the board.

Schematic Diagram

Includes the detailed circuit diagram for integration and customization.

Component List

Lists all components used on the board, including their specifications and suppliers.

Pin Configuration

  • Parallel Charging Board for 6 Packs 2~6S Documentation
  • The Parallel Charging Board for 6 packs 2~6S is a versatile and efficient charging solution for lithium-ion batteries. This board allows users to charge up to six batteries in parallel, making it an ideal choice for drone enthusiasts, RC hobbyists, and professionals. In this documentation, we will delve into the pinout and connectivity of the board.
  • Pinout Description:
  • The Parallel Charging Board has a total of 14 pins, divided into three categories: Power Input, Battery Connections, and Balance Leads.
  • Power Input (4 pins):
  • 1. VIN (+): The positive input voltage pin, connected to the charger's output positive terminal.
  • 2. VIN (-): The negative input voltage pin, connected to the charger's output negative terminal.
  • 3. GND: The ground pin, provides a common ground reference for the charger and batteries.
  • 4. EN: The enable pin, used to control the charging process. Connect to the charger's enable signal (if available) or leave unconnected for automatic charging.
  • Battery Connections (6 pins):
  • 1. BAT1: The positive terminal of the first battery connection.
  • 2. BAT1-: The negative terminal of the first battery connection.
  • 3. BAT2: The positive terminal of the second battery connection.
  • 4. BAT2-: The negative terminal of the second battery connection.
  • 5. BAT3: The positive terminal of the third battery connection (and so on, up to BAT6).
  • 6. BAT3-: The negative terminal of the third battery connection (and so on, up to BAT6-).
  • Balance Leads (4 pins):
  • 1. B1: The balance lead for the first battery pack (connect to the balance plug of the battery).
  • 2. B2: The balance lead for the second battery pack (connect to the balance plug of the battery).
  • 3. B3: The balance lead for the third battery pack (and so on, up to B6).
  • 4. B6: The balance lead for the sixth battery pack (connect to the balance plug of the battery).
  • Connection Structure:
  • To connect the Parallel Charging Board, follow these steps:
  • Power Input:
  • Connect the charger's output positive terminal to VIN (+).
  • Connect the charger's output negative terminal to VIN (-).
  • Connect the charger's ground terminal to GND.
  • If your charger has an enable signal, connect it to EN. Otherwise, leave EN unconnected.
  • Battery Connections:
  • Connect the positive terminal of the first battery to BAT1.
  • Connect the negative terminal of the first battery to BAT1-.
  • Repeat the above steps for each battery pack, connecting the positive terminal to the corresponding BATx pin and the negative terminal to the corresponding BATx- pin.
  • Balance Leads:
  • Connect the balance plug of the first battery pack to B1.
  • Connect the balance plug of the second battery pack to B2.
  • Repeat the above steps for each battery pack, connecting the balance plug to the corresponding Bx pin.
  • Important Notes:
  • Ensure all battery packs have the same voltage and chemistry (e.g., 6S LiPo) to avoid damage or imbalance.
  • Use high-quality, thick-gauge wires to connect the batteries and charger to the board.
  • Always double-check connections before powering on the charger and batteries.
  • Follow proper safety precautions when working with lithium-ion batteries and charging systems.
  • By following these connection guidelines and precautions, you can safely and efficiently charge your lithium-ion batteries using the Parallel Charging Board for 6 packs 2~6S.

Code Examples

Parallel Charging Board for 6 Packs 2~6S Documentation
Overview
The Parallel Charging Board for 6 Packs 2~6S is a comprehensive charging solution designed for Li-ion/Li-polymer battery packs. This board allows for simultaneous charging of up to six battery packs, each with a voltage range of 2S to 6S, making it an ideal component for various IoT, robotics, and drone applications.
Key Features
Supports up to 6 battery packs with 2S to 6S configurations
 Independent charging channels for each battery pack
 Built-in overcharge protection and short-circuit protection
 Compatible with a wide range of charging sources (e.g., USB, DC power supply)
 Compact design for easy integration into projects
Technical Specifications
Input Voltage: 5V to 30V (max)
 Output Voltage: 2S to 6S Li-ion/Li-polymer battery packs
 Charging Current: Up to 2A per channel (12A total)
 Dimension: 100mm x 60mm x 20mm
Code Examples
### Example 1: Basic Usage with Arduino
This example demonstrates how to use the Parallel Charging Board with an Arduino board to charge multiple battery packs simultaneously.
```cpp
// Arduino Code
#include <BatteryMonitor.h> // Assuming a BatteryMonitor library is available
#define CHARGE_PIN 2 // Pin connected to the charging board's input
#define BATTERY_PIN 3 // Pin connected to the battery pack's voltage monitoring pin
BatteryMonitor batteryMonitor(BATTERY_PIN);
void setup() {
  pinMode(CHARGE_PIN, OUTPUT);
  digitalWrite(CHARGE_PIN, HIGH); // Enable charging
}
void loop() {
  // Monitor battery voltage and charging status
  float voltage = batteryMonitor.getVoltage();
  bool charging = batteryMonitor.isCharging();
if (voltage < 3.8) { // Charge if voltage is below 3.8V
    digitalWrite(CHARGE_PIN, HIGH);
  } else {
    digitalWrite(CHARGE_PIN, LOW);
  }
delay(1000);
}
```
In this example, the Arduino board is used to monitor the battery pack's voltage and control the charging process using the `BatteryMonitor` library. The `CHARGE_PIN` is connected to the charging board's input, and when the battery voltage falls below 3.8V, the charging process is enabled.
### Example 2: Raspberry Pi with Python Script
This example demonstrates how to use the Parallel Charging Board with a Raspberry Pi to charge multiple battery packs using a Python script.
```python
# Python Script
import RPi.GPIO as GPIO
import time
# Set up GPIO pins
GPIO.setmode(GPIO.BCM)
CHARGE_PIN = 17
GPIO.setup(CHARGE_PIN, GPIO.OUT)
def charge_battery(packs):
    # Enable charging for the specified number of packs
    GPIO.output(CHARGE_PIN, GPIO.HIGH)
# Wait for a safe duration to ensure charging has started
    time.sleep(5)
# Monitor charging status and voltage levels
    # ...
# Disable charging when charging is complete
    GPIO.output(CHARGE_PIN, GPIO.LOW)
# Charge 3 battery packs
charge_battery(3)
```
In this example, the Raspberry Pi's GPIO pins are used to control the charging process. The `charge_battery` function enables charging for the specified number of packs, waits for a safe duration to ensure charging has started, and then monitors the charging status and voltage levels.
Note: These examples are simplified and assume a basic understanding of electronics and programming. Please ensure proper safety precautions and design considerations when working with Li-ion/Li-polymer battery packs and charging systems.
Pinouts and Connections
The Parallel Charging Board has the following pinouts and connections:
Input: Vin (5V to 30V), GND
 Output: 6 channels for battery packs (2S to 6S), each with V+ and V- connections
 Status LEDs: Charging indicator, Error indicator
Safety Precautions
Ensure the charging board is used with a compatible power source and battery packs.
 Avoid overcharging or undercharging, as this can cause damage to the battery packs or charging board.
 Follow proper safety guidelines when working with Li-ion/Li-polymer battery packs and charging systems.