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RoboTronics

Image courtesy of Arduino.cc

Bracio Robotic Arm

Explore the capabilities of the TinkerKit Braccio Robotic Arm, a fully operational robotic arm designed for versatility and precision. Controlled by an Arduino microcontroller, the Braccio can be assembled in multiple configurations to perform a variety of tasks, as shown in the images below.

Braccio Robotic Arm:

According to the manufacturer, the TinkerKit Braccio is a highly adaptable robotic arm. Its end effector can support various objects, making it suitable for a wide range of applications. Whether you're looking to automate tasks or experiment with robotics, the Braccio offers the flexibility and functionality you need.

Dive into our tutorials and projects to unlock the full potential of the Braccio Robotic Arm!

Voice Activated Robotic Arm

In this exciting project, you'll learn how to control the Braccio Robotic Arm using voice commands. By integrating the ELECHOUSE Voice Recognition Module, we will record seven distinct voice commands to direct the Braccio to perform various tasks.

What You’ll Learn:

How to set up and use the ELECHOUSE Voice Recognition Module

Recording and programming voice commands

Integrating voice commands with the Braccio Robotic Arm for task execution

Note: Detailed information about the Braccio Robotic Arm itself can be found in the “Braccio Robotic Arm” section of our website.

Join us in combining voice recognition technology with robotics to create a truly interactive and hands-free control system!

Voice-activated Robotic Arm in action

Image courtesy of Elegoo

Smart Car Project

Discover the impressive capabilities of the Elegoo Smart Car V3, a project that merges various technologies to address real-world challenges. This innovative vehicle is equipped with multiple features that enhance its functionality and versatility:

Ultrasonic Range Finder: Enables collision avoidance and semi-autonomous navigation.
Optical Sensors: Facilitates line-following navigation.
Bluetooth Connection: Allows for remote control operation.
Infrared Remote Control: Provides an additional method for user control.

Short Range Radar System

In this project, we will design and construct a Short Range Radar System using the MaxSonar EZ-1 Ultrasonic range finder. This system will measure the distance from the front of the sensor to nearby objects, providing precise distance readings. The key components required for this project include an Ultrasonic range finder, a Servo motor, an Arduino UNO, and jumper wires. Additionally, a motor shield is optional but can be used to simplify motor control.

The main component of this project is the MaxSonar Ultrasonic Range Finder.

MaxSonar EZ-1:

Chosen for its precision and versatility, the MaxSonar EZ-1 range finder offers accurate distance measurements from 0 to 255 inches (0 to 6.45 meters) in 1-inch increments with minimal dead zone.

Software Requirements

Arduino IDE: Used for programming the Arduino UNO, writing the code that controls the radar system, and uploading it to the board. The Arduino IDE is open-source and can be downloaded for free.

Processing IDE: Utilized for creating a visual representation of the radar data. This IDE is also open-source and available for free download.

Short Range Radar System Output

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