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How to Use tyrox board: Examples, Pinouts, and Specs

Image of tyrox board
Cirkit Designer LogoDesign with tyrox board in Cirkit Designer

Introduction

The Tyrox board is a versatile development board designed for prototyping and testing electronic circuits. It typically features a microcontroller, input/output (I/O) interfaces, and various connectivity options, making it suitable for a wide range of applications. Whether you're working on IoT projects, robotics, or embedded systems, the Tyrox board provides a reliable platform for rapid development and experimentation.

Explore Projects Built with tyrox board

Use Cirkit Designer to design, explore, and prototype these projects online. Some projects support real-time simulation. Click "Open Project" to start designing instantly!
Interactive Touch and Motion Sensor System with Bela Board and OLED Display
Image of GIZMO Teaset: A project utilizing tyrox board in a practical application
This circuit integrates a Bela Board with various sensors and actuators, including a TRILL CRAFT touch sensor, an ADXXL335 accelerometer, a vibration motor, and a loudspeaker. The Bela Board processes input from the touch sensor and accelerometer, and controls the vibration motor and loudspeaker, while an OLED display provides visual feedback.
Cirkit Designer LogoOpen Project in Cirkit Designer
Arduino Mega 2560 Battery-Powered Robotic Vehicle with Reflectance Sensor and Motor Control
Image of PID Line Following Robot (No ESP32 or US): A project utilizing tyrox board in a practical application
This circuit is a motor control system powered by 18650 Li-ion batteries, featuring an Arduino Mega 2560 microcontroller that controls two gear motors with integrated encoders via a TB6612FNG motor driver. It also includes a QTRX-HD-07RC reflectance sensor array for line following, and power management components such as a lithium battery charging board, a step-up boost converter, and a buck converter to regulate voltage.
Cirkit Designer LogoOpen Project in Cirkit Designer
RC Receiver Controlled Dual T200 Thruster System
Image of ACDC: A project utilizing tyrox board in a practical application
This circuit is designed to control two T200 Thrusters using signals from an RC Receiver Module. Each thruster is connected to an Electronic Speed Controller (ESC), which regulates the power supplied from a Lipo Battery based on the input signal from the RC Receiver. The ESCs also provide a 5V output to power the RC Receiver, creating a closed-loop system for remote control of the thrusters.
Cirkit Designer LogoOpen Project in Cirkit Designer
Battery-Powered Line Following Robot with IR Sensors and Cytron URC10 Motor Controller
Image of URC10 SUMO AUTO: A project utilizing tyrox board in a practical application
This circuit is a robotic control system that uses multiple IR sensors for line detection and obstacle avoidance, powered by a 3S LiPo battery. The Cytron URC10 motor driver, controlled by a microcontroller, drives two GM25 DC motors based on input from the sensors and a rocker switch, with a 7-segment panel voltmeter displaying the battery voltage.
Cirkit Designer LogoOpen Project in Cirkit Designer

Explore Projects Built with tyrox board

Use Cirkit Designer to design, explore, and prototype these projects online. Some projects support real-time simulation. Click "Open Project" to start designing instantly!
Image of GIZMO Teaset: A project utilizing tyrox board in a practical application
Interactive Touch and Motion Sensor System with Bela Board and OLED Display
This circuit integrates a Bela Board with various sensors and actuators, including a TRILL CRAFT touch sensor, an ADXXL335 accelerometer, a vibration motor, and a loudspeaker. The Bela Board processes input from the touch sensor and accelerometer, and controls the vibration motor and loudspeaker, while an OLED display provides visual feedback.
Cirkit Designer LogoOpen Project in Cirkit Designer
Image of PID Line Following Robot (No ESP32 or US): A project utilizing tyrox board in a practical application
Arduino Mega 2560 Battery-Powered Robotic Vehicle with Reflectance Sensor and Motor Control
This circuit is a motor control system powered by 18650 Li-ion batteries, featuring an Arduino Mega 2560 microcontroller that controls two gear motors with integrated encoders via a TB6612FNG motor driver. It also includes a QTRX-HD-07RC reflectance sensor array for line following, and power management components such as a lithium battery charging board, a step-up boost converter, and a buck converter to regulate voltage.
Cirkit Designer LogoOpen Project in Cirkit Designer
Image of ACDC: A project utilizing tyrox board in a practical application
RC Receiver Controlled Dual T200 Thruster System
This circuit is designed to control two T200 Thrusters using signals from an RC Receiver Module. Each thruster is connected to an Electronic Speed Controller (ESC), which regulates the power supplied from a Lipo Battery based on the input signal from the RC Receiver. The ESCs also provide a 5V output to power the RC Receiver, creating a closed-loop system for remote control of the thrusters.
Cirkit Designer LogoOpen Project in Cirkit Designer
Image of URC10 SUMO AUTO: A project utilizing tyrox board in a practical application
Battery-Powered Line Following Robot with IR Sensors and Cytron URC10 Motor Controller
This circuit is a robotic control system that uses multiple IR sensors for line detection and obstacle avoidance, powered by a 3S LiPo battery. The Cytron URC10 motor driver, controlled by a microcontroller, drives two GM25 DC motors based on input from the sensors and a rocker switch, with a 7-segment panel voltmeter displaying the battery voltage.
Cirkit Designer LogoOpen Project in Cirkit Designer

Common Applications and Use Cases

  • Internet of Things (IoT) devices and applications
  • Robotics and automation systems
  • Embedded systems development
  • Sensor interfacing and data acquisition
  • Educational projects and prototyping

Technical Specifications

The Tyrox board is equipped with a powerful microcontroller and a variety of features to support diverse applications. Below are the key technical details:

General Specifications

Feature Specification
Microcontroller 32-bit ARM Cortex-M4
Operating Voltage 3.3V
Input Voltage (recommended) 5V via USB or 7-12V via VIN pin
Digital I/O Pins 20 (including PWM-capable pins)
Analog Input Pins 6
Flash Memory 256 KB
SRAM 64 KB
Clock Speed 72 MHz
Connectivity Options UART, SPI, I2C, USB, Wi-Fi (optional)

Pin Configuration and Descriptions

The Tyrox board features a standard pin layout for easy interfacing with external components. Below is the pin configuration:

Pin Name Type Description
VIN Power Input External power input (7-12V recommended)
3.3V Power Output Regulated 3.3V output for external components
GND Ground Common ground
D0-D13 Digital I/O General-purpose digital pins (PWM on D3, D5, D6, D9)
A0-A5 Analog Input Analog input pins (10-bit resolution)
TX, RX UART Serial communication pins
SCL, SDA I2C I2C communication pins
MOSI, MISO, SCK SPI SPI communication pins
RESET Reset Resets the microcontroller

Usage Instructions

The Tyrox board is designed to be user-friendly and compatible with popular development environments such as the Arduino IDE. Follow these steps to get started:

Setting Up the Tyrox Board

  1. Install the Required Software:

    • Download and install the Arduino IDE from the official website.
    • Add the Tyrox board to the Arduino IDE by including the appropriate board manager URL in the IDE's preferences.
  2. Connect the Board:

    • Use a USB cable to connect the Tyrox board to your computer.
    • Ensure the correct board and port are selected in the Arduino IDE.
  3. Write and Upload Code:

    • Write your program in the Arduino IDE.
    • Click the "Upload" button to transfer the code to the Tyrox board.

Example Code: Blinking an LED

Here is a simple example to blink an LED connected to pin D13:

// This program blinks an LED connected to pin D13 on the Tyrox board.
// The LED will turn on for 1 second and off for 1 second in a loop.

void setup() {
  pinMode(13, OUTPUT); // Set pin D13 as an output pin
}

void loop() {
  digitalWrite(13, HIGH); // Turn the LED on
  delay(1000);            // Wait for 1 second
  digitalWrite(13, LOW);  // Turn the LED off
  delay(1000);            // Wait for 1 second
}

Important Considerations

  • Power Supply: Ensure the board is powered within the recommended voltage range to avoid damage.
  • Pin Current Limits: Do not exceed the maximum current rating (20mA per pin) to prevent damage to the microcontroller.
  • Static Protection: Handle the board with care to avoid static discharge, which can damage sensitive components.

Troubleshooting and FAQs

Common Issues and Solutions

  1. The board is not detected by the computer:

    • Ensure the USB cable is functional and properly connected.
    • Verify that the correct drivers are installed for the Tyrox board.
  2. Code upload fails:

    • Check that the correct board and port are selected in the Arduino IDE.
    • Press the reset button on the board before uploading the code.
  3. The board is not powering on:

    • Confirm that the power source is within the recommended voltage range.
    • Check for loose connections or damaged components.
  4. Peripherals are not working as expected:

    • Double-check the wiring and connections.
    • Verify that the correct pins are being used in the code.

FAQs

Q: Can I use the Tyrox board with sensors and modules?
A: Yes, the Tyrox board supports a wide range of sensors and modules via its digital, analog, and communication pins (UART, I2C, SPI).

Q: Is the Tyrox board compatible with Arduino libraries?
A: Yes, the Tyrox board is compatible with most Arduino libraries, making it easy to integrate with existing projects.

Q: How do I reset the board?
A: Press the reset button on the board to restart the microcontroller.

By following this documentation, you can effectively use the Tyrox board for your projects and troubleshoot common issues with ease.