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Red Chassis

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Microcontroller compartment

Accommodates a wide range of microcontrollers, including Arduino, Raspberry Pi, and ESP32.

Sensor compartment

Houses various sensors, including temperature, humidity, pressure, and gas sensors.

Communication compartment

Supports various communication modules, including Wi-Fi, Bluetooth, LoRa, and GSM.

Power management compartment

Accommodates power management systems, including batteries, power supplies, and charging circuits.

### 2. Customizable

The Red Chassis is highly customizable, allowing users to adapt the enclosure to their specific project requirements. The chassis is designed to accommodate various mounting options, including screws, adhesives, and clips, enabling users to securely fasten components in place.

### 3. Durable Construction

The Red Chassis is constructed from high-quality, durable materials, ensuring the enclosure can withstand various environmental conditions, including temperature fluctuations, humidity, and physical stress.

### 4. Easy Access

The chassis features easy-access compartments, enabling users to quickly and easily access components for maintenance, repair, or upgrade.

### 5. Compact Size

The Red Chassis is designed to be compact and lightweight, making it ideal for IoT devices that require a small form factor.

### 6. Integrated Cooling System

The chassis features an integrated cooling system, comprising ventilation holes and heat sinks, to ensure efficient heat dissipation and maintain optimal operating temperatures.

### 7. Multiple Mounting Options

The Red Chassis provides multiple mounting options, including screws, adhesives, and clips, allowing users to securely fasten the enclosure to various surfaces or objects.

### 8. Compatibility

The Red Chassis is compatible with a wide range of IoT development platforms, including Arduino, Raspberry Pi, ESP32, and many more.

Dimensions

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Length

100 mm

Width

50 mm

Height

30 mm

Materials

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Durable ABS plastic

Aluminum heat sinks

Stainless steel screws and clips

Operating Conditions

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Operating temperature

-20C to 80C

Storage temperature

-40C to 100C

Humidity

5% to 95% RH

Certifications

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CE marked

FCC compliant

RoHS compliant

Warranty

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The Red Chassis comes with a 1-year limited warranty, covering defects in materials and workmanship.

Pin Configuration

  • Red Chassis Component Documentation
  • Overview
  • The Red Chassis is a compact and versatile IoT development board designed for rapid prototyping and project development. This documentation provides a detailed explanation of the pins on the Red Chassis, their functions, and guidance on how to connect them.
  • Pinout Structure
  • The Red Chassis has a total of 30 pins, divided into three rows of 10 pins each. The pins are labeled and color-coded for easy identification.
  • Row 1 (Left to Right)
  • 1. VCC (Red): Power supply pin. Connect to a 3.3V or 5V power source.
  • 2. RST (Blue): Reset pin. Connect to a reset button or a pull-up resistor to reset the microcontroller.
  • 3. GND (Black): Ground pin. Connect to the ground of the power source or a common ground point.
  • 4. D0 (Digital Pin 0, Yellow): Digital input/output pin. Can be used for digital communication, sensors, or actuators.
  • 5. D1 (Digital Pin 1, Yellow): Digital input/output pin. Can be used for digital communication, sensors, or actuators.
  • 6. D2 (Digital Pin 2, Yellow): Digital input/output pin. Can be used for digital communication, sensors, or actuators.
  • 7. D3 (Digital Pin 3, Yellow): Digital input/output pin. Can be used for digital communication, sensors, or actuators.
  • 8. D4 (Digital Pin 4, Yellow): Digital input/output pin. Can be used for digital communication, sensors, or actuators.
  • 9. D5 (Digital Pin 5, Yellow): Digital input/output pin. Can be used for digital communication, sensors, or actuators.
  • 10. D6 (Digital Pin 6, Yellow): Digital input/output pin. Can be used for digital communication, sensors, or actuators.
  • Row 2 (Left to Right)
  • 1. D7 (Digital Pin 7, Yellow): Digital input/output pin. Can be used for digital communication, sensors, or actuators.
  • 2. D8 (Digital Pin 8, Yellow): Digital input/output pin. Can be used for digital communication, sensors, or actuators.
  • 3. D9 (Digital Pin 9, Yellow): Digital input/output pin. Can be used for digital communication, sensors, or actuators.
  • 4. D10 (Digital Pin 10, Yellow): Digital input/output pin. Can be used for digital communication, sensors, or actuators.
  • 5. A0 (Analog Pin 0, White): Analog input pin. Can be used for analog sensors or readings.
  • 6. A1 (Analog Pin 1, White): Analog input pin. Can be used for analog sensors or readings.
  • 7. A2 (Analog Pin 2, White): Analog input pin. Can be used for analog sensors or readings.
  • 8. A3 (Analog Pin 3, White): Analog input pin. Can be used for analog sensors or readings.
  • 9. SCL (I2C Clock, Green): I2C clock pin. Used for I2C communication with other devices.
  • 10. SDA (I2C Data, Green): I2C data pin. Used for I2C communication with other devices.
  • Row 3 (Left to Right)
  • 1. TX (Serial Transmit, Orange): Serial communication transmit pin. Used for serial communication with other devices.
  • 2. RX (Serial Receive, Orange): Serial communication receive pin. Used for serial communication with other devices.
  • 3. VIN (Power Input, Red): Alternative power input pin. Can be used to power the board from an external source.
  • 4. GND (Ground, Black): Ground pin. Connect to the ground of the power source or a common ground point.
  • 5. BOOT (Bootloader, Blue): Bootloader pin. Used to enter the bootloader mode for firmware updates.
  • 6. EN (Enable, Blue): Enable pin. Used to enable or disable the microcontroller.
  • 7. INT (Interrupt, Yellow): Interrupt pin. Used for interrupt-based communication with other devices.
  • 8. SPI_CS (SPI Chip Select, Yellow): SPI chip select pin. Used for SPI communication with other devices.
  • 9. SPI_CLK (SPI Clock, Yellow): SPI clock pin. Used for SPI communication with other devices.
  • 10. SPI_MOSI (SPI Master Out Slave In, Yellow): SPI master out slave in pin. Used for SPI communication with other devices.
  • Connection Guidelines
  • When connecting pins to external devices, ensure that the voltage levels are compatible.
  • Use appropriate pull-up or pull-down resistors for digital input pins.
  • Use a voltage regulator or a voltage divider to regulate the power supply voltage if necessary.
  • Ensure proper isolation and decoupling for analog pins to minimize noise and interference.
  • Follow the specific communication protocol guidelines for I2C, SPI, and serial communication.
  • By following this documentation and understanding the functionality of each pin, you can effectively connect and utilize the Red Chassis for your IoT projects and applications.

Code Examples

Red Chassis Documentation
The Red Chassis is a compact, modular enclosure designed for IoT projects. It provides a rugged and stylish housing for your IoT devices, making it ideal for prototyping and production. The Red Chassis is compatible with various microcontrollers and single-board computers, including Arduino, Raspberry Pi, and ESP32.
Features:
Compact size: 100mm x 60mm x 30mm
 Durable aluminum alloy construction
 Modular design for easy component integration
 Multiple mounting options (screws, adhesive, or clips)
Code Examples:
### Example 1: Using the Red Chassis with Arduino and DHT11 Sensor
In this example, we will use the Red Chassis to house an Arduino Uno and a DHT11 temperature and humidity sensor.
Hardware Requirements:
Red Chassis
 Arduino Uno
 DHT11 sensor
 Jumper wires
Code:
```c++
#include <DHT.h>
#define DHTPIN 2     // DHT11 sensor pin connected to Arduino digital pin 2
DHT dht(DHTPIN, DHT11);
void setup() {
  Serial.begin(9600);
  dht.begin();
}
void loop() {
  int temperature = dht.readTemperature();
  int humidity = dht.readHumidity();
  Serial.print("Temperature: ");
  Serial.print(temperature);
  Serial.println(" C");
  Serial.print("Humidity: ");
  Serial.print(humidity);
  Serial.println(" %");
  delay(2000);
}
```
Assembly:
1. Mount the Arduino Uno to the Red Chassis using screws or adhesive.
2. Connect the DHT11 sensor to the Arduino Uno using jumper wires.
3. Assemble the Red Chassis by attaching the top and bottom plates.
### Example 2: Using the Red Chassis with Raspberry Pi and Wi-Fi Module
In this example, we will use the Red Chassis to house a Raspberry Pi and a Wi-Fi module.
Hardware Requirements:
Red Chassis
 Raspberry Pi (any model)
 Wi-Fi module (e.g., ESP8266)
 Jumper wires
Code:
```python
import os
import time
from wifi import WiFi
# Initialize Wi-Fi module
wifi = WiFi('wlan0')
while True:
    # Scan for Wi-Fi networks
    networks = wifi.scan()
    print("Available networks:")
    for network in networks:
        print(network.ssid)
# Connect to a network
    wifi.connect('your_network_ssid', 'your_network_password')
    print("Connected to Wi-Fi network.")
# Perform actions (e.g., send data to the cloud)
# Disconnect from the network
    wifi.disconnect()
    print("Disconnected from Wi-Fi network.")
time.sleep(10)
```
Assembly:
1. Mount the Raspberry Pi to the Red Chassis using screws or adhesive.
2. Connect the Wi-Fi module to the Raspberry Pi using jumper wires.
3. Assemble the Red Chassis by attaching the top and bottom plates.
These examples demonstrate how to use the Red Chassis with different microcontrollers and peripherals. The modular design of the Red Chassis makes it easy to integrate with various IoT components and projects.