Quarky Robotic Arm - Documentation
Getting Started with Quarky Robotic Arm
Refer to the tutorials to learn about the Robotic Arm, and how to assemble and program it in Block coding or Python coding.
“Learn to control a Quarky robotic arm remotely using Bluetooth and PictoBlox. Perfect for tasks like picking and tool manipulation, this project boosts productivity and safety in hazardous environments. Step-by-step coding guides included for precise X, Y, Z-axis, and gripper control.”
This activity focuses on programming a robotic arm using Python in PictoBlox, showcasing Python’s power in AI and ML. You’ll learn to initialize the arm, define movement functions for X, Y, and Z axes, control the gripper, and implement real-time control using a loop. This hands-on project sets the stage for embedding AI and ML into the robotic arm in future activities. Let’s get started!
Learn how to make a robotic arm autonomous, moving beyond manual control to execute repetitive tasks efficiently. By following the coding steps in PictoBlox, you can program precise movements and actions, making it suitable for applications in industries like manufacturing and medical fields. With careful calibration and testing, you can successfully transform your robotic arm into an autonomous system, enhancing its functionality and versatility.
Learn how to program a robotic arm to operate autonomously using Python in Pictoblox. This activity guides you through initializing the robotic arm, writing movement and gripper actions, and using a continuous loop for independent operation. You’ll also explore the transition from stage mode to upload mode, allowing the robotic arm to function without an external system or Pictoblox connection. Ideal for robotics enthusiasts and learners, this guide will help you take full control of robotic arms in a simple, efficient way.
this activity introduces the integration of machine learning into robotics by developing a hand gesture recognition model in PictoBlox. Through systematic steps, you learn to train, test, and export the model to control a robotic arm using gestures. By combining gesture analysis with robotic arm settings, this project highlights the potential of machine learning in enabling intuitive and precise control in robotics, paving the way for innovative applications.
Quarky Robotic Arm Project - Block Coding
Refer to the tutorials to learn how to use PictoBlox Block Coding Environment to code Quarky Robotic Arm for different applications.
Learn how to use face detection to control humanoid robot movements for interactive and responsive robotics applications. Get started now!
This project demonstrates how to use Machine Learning Environment to make a machine–learning model that identifies the hand gestures and makes the Mecanum robot move accordingly.
Learn how to use the Hand Gesture Classifier of the Machine Learning Environment to make a machine-learning model that identifies hand gestures and makes the Mecanum move accordingly.
Learn about face-tracking, and how to code a face-tracking Quadruped robot using sensors and computer vision techniques.
Convert any word or phrase into a delightful sequence of emojis with our Emoji Converter.
Welcome to the Noun Detector, a powerful tool that utilizes ChatGPT and the spaCy library to identify and extract nouns from text.
Expand your vocabulary and enhance your writing with the Synonyms and Antonyms Word Converter.
Discover how a robotic arm playing chess showcases the synergy between robots and AI.
Discover the versatility and benefits of automatic robotic arms in various industries.
Discover the power of Pulse Width Modulation (PWM) in Arduino, enabling voltage control and pulse width adjustment.
Learn about servo motors and interface it with Arduino , servo control with ardunio
The examples show how to use pose recognition in PictoBlox to maintain a yoga pose for a particular time interval.
Learn how to interface an MQ sensor with Quarky to detect the presence of gases like alcohol.
This project demonstrates a Two IR Line Following Robot using external IR sensors and the Quarky.
In this example, we look at how to establish and see if the Wi-Fi is connected to Quarky or not.
Explore the power of machine learning in recognizing hand gestures and controlling the movements of a Quadruped robot.
Learn how to create a switch on Adafruit IO with Python code and an IoT-enabled Smart Plug. This project demonstrates how to control a plug and retrieve information from the cloud with the help of a Quarky Expansion Board, Adafruit IO, and an IoT house.
Learn how to create a crawling motion with a quadruped robot using individual servo control.
Explore the surroundings with our obstacle avoidance Mars Rover that uses an ultrasonic sensor to detect and avoid obstacles. Learn how the robot moves, detects obstacles, and navigates its way through them.
Learn how to set the bounding box threshold, and detect signals such as ‘Go’, ‘TurnRight’, ‘TurnLeft’, and ‘Stop’ to control humanoid movements.
Learn how to use the Hand Gesture Classifier of the Machine Learning Environment to make a machine-learning model that identifies hand gestures and makes the Mars Rover move accordingly.
Discover the exciting world of face-tracking robots and learn how to code one using sensors and algorithms.
In this activity, learn how to create a new Machine Learning model that will be able to identify and detect different types of hand poses and that can help us to control the Mecanum Gripper Robot.
In this activity, learn how to create a new Machine Learning model that will be able to identify and detect different types of hand poses and that can help us to control the Mecanum Gripper Robot.
Learn how to create a crawling motion with a quadruped robot using individual servo control.
Learn how to set the bounding box threshold, and detect signals such as ‘Go’, ‘TurnRight’, ‘TurnLeft’, and ‘Stop’ to control quadruped movements.
Engage in interactive conversations with the AI assistant powered by ChatGPT and Sprite Tobi.
The examples show how to use pose recognition in PictoBlox to make jumping jack counter.
Explore the functionality of a raindrop sensor, an analog-type sensor that detects changes in resistance upon contact with water.
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PictoBlox Extension Documentation
Refer to the documentation of PictoBlox Extension to understand how to use the blocks and functions for the Robotic Arm.