Basics of Robotics with LIMO – Self-Study Course Syllabus
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\Course Description:\\
\This comprehensive 4-month self-study course, “Basics of Robotics with LIMO,” is designed for motivated beginners and intermediate learners eager to delve into the fascinating world of robotics. Utilizing the LIMO robot as a practical platform, this course will guide you through the fundamental principles of robotics, from basic concepts and control systems to programming, navigation, and practical application. Through engaging lessons, clear explanations, key vocabulary, and hands-on examples, you will build a solid theoretical foundation and gain practical skills necessary for robot development. The course culminates in a final project where you will apply your accumulated knowledge to bring your LIMO robot to life.\
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\Primary Learning Objectives:\\
\Upon successful completion of this course, you will be able to:\
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- Understand the core components and classifications of robots.\ \
- Grasp fundamental concepts of robot kinematics, dynamics, and control.\ \
- Develop programming skills for robotic platforms, specifically using Python.\ \
- Implement basic navigation and localization techniques for mobile robots.\ \
- Apply theoretical knowledge to practical scenarios using the LIMO robot.\ \
- Troubleshoot and debug common robotics issues.\ \
- Design and execute a simple robotics project from conception to completion.\ \
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\Necessary Materials:\\
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- \LIMO Robot:\ An essential hardware component for hands-on exercises.\ \
- \Computer:\ With a compatible operating system (Ubuntu 20.04 LTS recommended) and internet access.\ \
- \Python 3:\ Pre-installed on your system.\ \
- \ROS (Robot Operating System) Noetic:\ Installation and configuration will be covered in the course.\ \
- \Gazebo Simulator:\ For virtual robot simulations.\ \
- \Integrated Development Environment (IDE):\ Such as VS Code or PyCharm.\ \
- \Text Editor:\ For basic code editing.\ \
- \Optional:\ Breadboard, jumper wires, basic electronic components for understanding concepts (though not strictly required for LIMO).\ \
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\Course Content\\
\This course is structured into 14 weekly lessons, allowing for two additional weeks for review and the final project.\
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\Week 1-2: Module 1 – Foundations of Robotics\\
\\Lesson 1: Introduction to Robotics and the LIMO Robot\\
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\Learning Objectives:\\
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- Define robotics and its various applications.\ \
- Identify the main components of a robot system.\ \
- Familiarize yourself with the LIMO robot’s hardware and capabilities.\ \
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\Key Vocabulary:\\
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- \Robot:\ An autonomous or semi-autonomous machine designed to perform tasks.\ \
- \Robotics:\ The interdisciplinary field concerned with the design, construction, operation, and use of robots.\ \
- \Actuator:\ A component of a machine that is responsible for moving and controlling a mechanism or system.\ \
- \Sensor:\ A device that detects and responds to some type of input from the physical environment.\ \
- \Controller:\ The “brain” of the robot, responsible for processing information and sending commands.\ \
- \LIMO Robot:\ A specific type of mobile robot often used for research and education.\ \
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\Content:\\
\Welcome to the exciting world of robotics\! In this first lesson, we’ll lay the groundwork by defining what robotics is and exploring its diverse applications, from industrial automation to healthcare and space exploration. We’ll then break down the essential building blocks of any robot: mechanical structures, actuators (motors), sensors (like cameras and LiDAR), and the all-important controller (the computer or microcontroller that makes decisions).\
Our practical journey will be centered around the LIMO robot. We’ll take a tour of its physical components, understanding what each part does and how they interact. The LIMO is a fantastic platform because it offers a balance of simplicity for beginners and enough complexity to explore advanced topics later. Think of it as your personal learning companion for this course. We’ll discuss its mobility, sensor suite, and connectivity options, giving you a clear picture of what we’ll be working with.
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\Hands-on Example:\\
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- \Activity:\ Unboxing and initial inspection of your LIMO robot. Identify the wheels, motors, sensors (if visible), and main processing unit. Refer to the LIMO robot’s quick start guide or manual to locate key features.\ \
- \Goal:\ Physically identify and understand the basic function of LIMO’s main components.\ \
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\Lesson 2: Introduction to Linux and the Command Line\\
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\Learning Objectives:\\
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- Understand the importance of Linux in robotics.\ \
- Navigate the Linux file system using basic command-line interface (CLI) commands.\ \
- Perform essential file and directory operations from the terminal.\ \
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\Key Vocabulary:\\
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- \Linux:\ A family of open-source Unix-like operating systems.\ \
- \Command Line Interface (CLI):\ A text-based interface used to operate software and operating systems.\ \
- \Terminal:\ A program that allows users to interact with the command line.\ \
- \Directory:\ A folder in the file system.\ \
- \Root Directory:\ The top-level directory in a Linux file system, denoted by \
/\
.\
\ - \Home Directory:\ The default directory for a user, denoted by \
\~\
.\
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\Content:\\
\Linux is the operating system of choice for many roboticists. Its open-source nature, flexibility, and robust development environment make it ideal for building complex robotic systems. In this lesson, we’ll introduce you to the Linux environment, specifically focusing on how to interact with it using the command line. While graphical interfaces are common, mastering the command line is crucial for robotics, especially when working with remote robots or embedded systems.\
We’ll start with fundamental navigation commands like pwd
(print working directory), ls
(list directory contents), and cd
(change directory). You’ll learn how to create, copy, move, and delete files and directories using commands such as mkdir
, touch
, cp
, mv
, and rm
. Understanding these basics will empower you to manage your robotic projects efficiently.
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\Hands-on Example:\\
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- \Activity:\ Open a terminal on your Linux machine (or a virtual machine if you’re not running Linux natively).
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\
- Navigate to your home directory.\ \
- Create a new directory called \
robotics\_workspace\
.\
\ - Inside \
robotics\_workspace\
, create a subdirectory called \my\_first\_robot\
.\
\ - Create an empty file named \
hello.txt\
inside \my\_first\_robot\
.\
\ - Copy \
hello.txt\
to the \robotics\_workspace\
directory.\
\ - Delete the \
my\_first\_robot\
directory and its contents.\
\
\ - \Goal:\ Successfully execute basic Linux CLI commands to manage files and directories.\ \
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\Week 3-4: Module 2 – Programming for Robotics\\
\\Lesson 3: Python Fundamentals for Robotics\\
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\Learning Objectives:\\
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- Understand basic Python syntax and data types.\ \
- Write simple Python scripts to perform calculations and manipulate data.\ \
- Utilize control flow structures (if/else, loops) in Python.\ \
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\Key Vocabulary:\\
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- \Python:\ A high-level, interpreted programming language widely used in robotics.\ \
- \Variable:\ A named storage location in a computer program.\ \
- \Data Type:\ Classification of data which tells the interpreter how the programmer intends to use the data (e.g., integer, float, string, boolean).\ \
- \Function:\ A block of organized, reusable code that is used to perform a single, related action.\ \
- \Control Flow:\ The order in which individual statements, instructions, or function calls are executed or evaluated.\ \
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\Content:\\
\Python has become the lingua franca of robotics due to its readability, extensive libraries, and rapid development capabilities. This lesson will serve as your crash course in Python fundamentals, focusing on concepts directly applicable to robotics. We’ll start with basic syntax, understanding