Roboki: Difference between revisions
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|Spin Wheel | |[[Roboki - Session 4|Spin Wheel]] | ||
| In this activity, we will design and build a spin wheel game using a motor to control the wheel’s rotation. The built-in switch | | In this activity, we will design and build a spin wheel game using a motor to control the wheel’s rotation. The built-in switch | ||
will be used to activate and deactivate the motor, helping us understand motion control through precise inputs. | will be used to activate and deactivate the motor, helping us understand motion control through precise inputs. | ||
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|5 | |5 | ||
|Robo Car | |[[Roboki - Session 5|Robo Car]] | ||
|In this activity, we will program a rover to move in various directions, including forward, backward, left, right, and in circular | |In this activity, we will program a rover to move in various directions, including forward, backward, left, right, and in circular | ||
patterns. This project enhances understanding of robotics and movement control through coding. | patterns. This project enhances understanding of robotics and movement control through coding. |
Revision as of 15:16, 10 September 2024
Roboki is a fully customizable and codable robotic kit designed specifically for kids by Yudurobotics. Roboki is not just a toy; it's an educational tool that combines fun and learning, allowing children to explore the exciting world of robotics and coding. With Roboki, kids can build, code, and play with a variety of projects, enhancing their problem-solving skills, creativity, and technical knowledge.
Getting started
A Look Inside the Box:
Roboki includes a set of components in the box that can be used to enhance its functionality. The package includes:
Roboki Anatomy:
Roboki is designed with simplicity and functionality in mind, offering an intuitive layout for young learners to explore. Each part of the kit plays a specific role, from powering the robot to controlling its movements and sensors. Below is an overview of the key components and their functionalities:
Part | Functionality |
Type - C port | Used to power up Roboki |
Port A | GPIO port |
Port B | GPIO port |
SW1 | Switch 01 |
SW2 | Switch 02 |
M1 | Dc motor port 1 |
M2 | Dc motor port 2 |
S1 | Servo motor port 1 (Internal Input) |
S2 | Servo motor port 1 (Internal Input) |
Reset | Change modes / erase programs / Reset the device |
On / Off | On / Off switch |
Power port | Used to connect an external battery |
RGB Leds (eyes) | Output |
Specifications:
The technical specifications of Roboki ensure that it meets the needs of young learners while providing enough functionality for advanced robotics projects. From its precise motor controls to its versatile GPIO ports, Roboki is built to offer flexibility, power, and connectivity for various creative applications.Let's take a detailed look at the specifications of Roboki :
Specification | Details |
Dimensions | Length: _ mm, Width: _ mm, Height: _ mm |
Weight | ___ grams |
Power Input | Type-C port, 5V |
Battery | External battery, 7.4V Li-Po |
Motor Ports | 2 (M1, M2) |
Servo Ports | 2 (S1, S2) |
GPIO Ports | 2 (Port A, Port B) |
Switches | 2 (SW1, SW2) |
LEDs | RGB LEDs (Eyes) |
Reset Button | Yes |
On/Off Switch | Yes |
Connectivity | Bluetooth (via PLODE app) |
Processor | ___ MHz |
Memory | ___ KB RAM, ___ MB Flash |
Hardware:
Roboki's hardware is designed to support a variety of robotics projects with precision and flexibility. Its durable components, including motors and sensors, ensure smooth operation and enable interaction with the environment, making it perfect for both simple and complex builds.
Motors
Roboki includes two high-quality motors that are essential for moving parts of your robotic projects. These motors provide precise control and high torque, making them suitable for various applications such as driving wheels.
Specifications:
Specification | Details |
Motor Type | DC Brushed Motor |
Voltage Rating | ___ V |
Stall Torque | ___ Nm (Newton-meters) |
No-Load Speed. | ___ RPM (Revolutions Per Minute) |
Load Speed | ___RPM |
Current Rating | ___A - __A |
Dimensions | Length: __mm
Diameter: __mm |
Weight | __ grams |
RGB LEDs (Eyes)
Roboki is equipped with customizable RGB LEDs that can be programmed to display different colors and patterns. These LEDs can be used to add visual effects to your projects, making them more interactive and engaging.
Example Uses:
- Status Indicator: Program the RGB LEDs to change color based on the status of your robot (e.g., green for active, red for error).
- Replicate Emotions: Program the RGB LEDS to change color based of the emotion you want to portray (e.g., blue for sad, red for angry)
Sensors
Roboki comes with two Range sensors that allow your projects to interact with their environment. These sensors can detect distances that can be used to trigger different actions.
Range Sensors: Detect the distance between the sensor and an object. Useful for obstacle avoidance and distance measurement.
Example Uses: Obstacle Avoidance Robot: Use range sensors to create a robot that can navigate around obstacles without hitting them.
Plug and Play Ports
Roboki features plug and play ports that allow you to easily connect external sensors and modules. This expandability makes it possible to enhance your projects with additional functionalities.
Simply plug the connectors of your external sensors or modules into one of the ports on Roboki . The system will automatically recognize and integrate them, allowing you to immediately start using the new components.
Software control:
Roboki can be coded and controlled using many methods. All these methods are using the PLODE app.
What is the PLODE app?
Plode app and website transform coding and robotics into an exciting and accessible adventure for everyone, whether you’re a curious beginner or a tech enthusiast. With PLODE, you can effortlessly control and program an array of fantastic robots and kits like PeeCee, Roboki, PeeCee v0.1, Zing, Crawl-e, and Klaw.
Methods :
Roboki can be programmed and controlled through various coding methods, offering flexibility for different skill levels. Whether you are a beginner exploring robotics for the first time or an advanced user looking for in-depth control, the PLODE app provides several ways to code your projects. Each method is tailored to different learning stages and preferences.
- Hexa Block Programming: A unique and intuitive block-based coding system tailored for beginners.
- Block Programming: Standard block-based coding similar to Scratch, ideal for younger users and beginners.
- Flowchart Programming: A visual programming method that uses flowcharts to design logic.
- Python Programming: For more advanced users, Python allows for detailed and sophisticated programming.
- C Programming: Provides low-level control for advanced users familiar with C language.
Note: for detailed explanation on how to use the above methods , visit (***insert Plode wiki link***)
Integration of AI-cam with Roboki:
The integration of AI Cam with Roboki significantly expands its functionality by introducing advanced visual recognition, voice interaction, and heightened environmental awareness. Connecting the AI Cam through the plug-and-play ports and managing it via the PLODE app enables Roboki to perceive its surroundings in a smarter way. With AI Cam, Roboki can recognize objects, respond to voice commands, and detect movements, transforming it into an intelligent, interactive robot. This upgrade enhances Roboki's ability to engage dynamically, making it a more responsive and immersive learning tool.
See AI Cam[1]
Building with Roboki
● Project Examples
Basic Projects
Start with simple projects to get familiar with the components and functionality of Roboki.
Turning on the LEDs in the Roboki using the internal switches.
Tutorial Link: (***insert video link***)
Turning on the LEDs in the Roboki using the data value from range sensor.
Tutorial Link: (***insert video link***)
Note: Check the Youtube Playlist for other projects (***insert playlist link***)
Advanced Projects
Once you're comfortable with the basics, move on to more complex projects.
Building an Autonomous Rover using Roboki along with other included components.
Tutorial Link: (***insert video link***)
Building a Robo Car that can be controlled remotely through the PLODE app.
Tutorial Link: (***insert video link***)
Note: Check the Youtube Playlist for other projects (***insert playlist link***)
● Building Blocks Compatibility
Roboki is compatible with building blocks, allowing you to combine your kit with existing building blocks to create more intricate and customized designs.
● Upgradeable Add-ons
Expand your Roboki kit with additional modules and accessories available separately. These add-ons can provide new functionalities and enhance your existing projects.
Roboki Sessions
● Roboki sessions ● Roboki tutorials
Explore a range of hands-on projects designed to enhance your understanding of robotics, programming, and automation with Roboki. Whether you're just starting out or looking to take on advanced challenges, these activities will guide you through the basics of LED control, sensor integration, and AI applications. From building a simple traffic light system to programming a voice-controlled robot, each project offers practical experience in developing real-world robotic systems. Perfect for learners of all levels, Roboki projects provide an exciting way to bring your ideas to life!
Session No | Session Name | Description | Video Tutorial |
---|---|---|---|
1 | Roboki Basics | In this activity, we will learn the essentials of hex coding and electronics by controlling LEDs. We will start with simple tasks
like turning on a single LED and progress to color mixing with two LEDs. By the end, we will be able to apply these skills to create a functional Traffic Light System. |
Watch and build now ! |
2 | Switch It Up | In this activity, we will explore how to use the built-in switch on Roboki to control an LED.This hands-on experience
demonstrates how input signals govern output actions, providing insights into basic control systems. |
Watch and build now ! |
3 | Sensor ON | In this activity, we will work with external sensors to read values and use them to control LEDs. We will program an
RGB LED to display different colors based on sensor readings, offering a practical introduction to sensor-based interactions. |
Watch and build now ! |
4 | Spin Wheel | In this activity, we will design and build a spin wheel game using a motor to control the wheel’s rotation. The built-in switch
will be used to activate and deactivate the motor, helping us understand motion control through precise inputs. |
Watch and build now ! |
5 | Robo Car | In this activity, we will program a rover to move in various directions, including forward, backward, left, right, and in circular
patterns. This project enhances understanding of robotics and movement control through coding. |
Watch and build now ! |
6 | Entry Guard | In this activity, we will set up a proximity sensor system that monitors entrances and exits. The system will play audio
messages like “People In” and “People Out” based on sensor triggers, providing a practical experience in creating automated monitoring systems. |
Watch and build now ! |
7 | Remote Controlled Car | In this activity, we will use the PLODE app’s in-app remote control feature to command a robot’s movements.
We will also learn how to control the robot’s motion in real-time, improving their skills in app-based robotics interaction. |
Watch and build now ! |
8 | Voice Controlled Robot | In this activity, we will utilize voice recognition technology to enable the robot to respond to vocal commands. The robot
will perform movements and dance sequences based on these commands, showcasing the application of voice-controlled automation. |
Watch and build now ! |
9 | Wall Follower | In this activity, we will build a robot that follows a wall using a proximity sensor. The robot will navigate by maintaining
a consistent distance from the wall, offering valuable experience in automated navigation and environmental sensing. |
Watch and build now ! |
10 | Obstacle Avoider | In this activity, we will create a robot capable of solving mazes by detecting and avoiding obstacles. Using two proximity
sensors, the robot will make decisions based on its environment, teaching participants about real-time problem-solving in robotics. |
Watch and build now ! |
11 | Follow The Line | In this activity, we will construct a line-following robot that can detect and avoid obstacles while staying on its path.
This project focuses on enhancing navigational problem-solving skills in robotics. |
Watch and build now ! |
12 | Pet Robot | In this activity, we will develop a pet robot that detects facial expressions and responds to emotions.
This project will expand horizon to AI-based interaction and recognition technology. |
Watch and build now ! |
13 | Object Finder | In this activity, we will use Roboki’s integrated AI features to build a robot that locate different objects. Upon detection,
the robot will point to the direction of the object,providing a practical introduction to AI programming and object detection. |
Watch and build now ! |
14 | Follow Me Home | In this activity, we will program a robot to recognize objects using AI and adjust its movements accordingly to move towards
the object.The robot will turn in different directions based on what it detects, offering insights into AI-assisted decision-making and navigation. |
Watch and build now ! |
15 | Hoop Master | In this activity, we will develop an interactive ball game using proximity sensors to detect the ball’s position. Motors will be
programmed to increase the speed of the hoop to increase the difficulty of the game, combining elements of programming, electronics, and real-time response for a dynamic gaming experience with robots. |
Watch and build now ! |
Check out the Youtube Playlist for the projects : Click here |