About this course
Robotics & Automation Internship Program: 6-Week Structured Learning and Experience
Introduction
Robotics and automation are at the forefront of modern technological advancements, transforming industries like manufacturing, healthcare, and logistics. This internship program provides hands-on experience with robotic components, programming, automation systems, and AI-driven robotics applications. Participants will work with microcontrollers, sensors, PLCs, and simulation tools to develop practical robotic solutions.
This program is designed for aspiring robotics engineers, automation specialists, and technology enthusiasts looking to gain practical knowledge in robotics and automation. The course concludes with an advanced robotics project as a capstone experience.
Program Highlights
Week 1: Fundamentals of Robotics & Automation
· Introduction to Robotics & Automation: Research and write a report on the fundamentals of robotics and automation.
o Outcome: A 500-word report explaining key concepts, history, and applications.
· Types of Robots: Create a comparative study of different types of robots (industrial, humanoid, autonomous, etc.).
o Outcome: A 5-slide presentation summarizing types, features, and use cases.
· Basic Components of a Robot: Identify and explain the essential components of a robot (sensors, actuators, controllers, etc.).
o Outcome: A detailed diagram with explanations of each component.
Week 2: Robotics Hardware & Motion Control
· Introduction to Sensors in Robotics: Research different types of sensors used in robots and their functions.
o Outcome: A table listing sensor types, working principles, and applications.
· Introduction to Actuators in Robotics: Study and explain the types of actuators used in robotics.
o Outcome: A 400-word report comparing electrical, hydraulic, and pneumatic actuators.
· Programming a Simple Robot Motion: Write a basic code (using Python or Arduino) to move a robot forward and backward.
o Outcome: A working code snippet with a brief explanation.
Week 3: Industrial Automation & PLCs
· Introduction to Automation: Explain the role of automation in industries and daily life.
o Outcome: A case study on industrial automation with real-world examples.
· Introduction to PLC (Programmable Logic Controller): Research how PLCs work and their importance in automation.
o Outcome: A flowchart explaining a basic PLC-controlled process.
· Designing a Basic Robotic Arm: Create a simple design for a robotic arm with 2-3 degrees of freedom.
o Outcome: A hand-drawn or software-generated diagram with labeled parts.
Week 4: Robotics Programming & AI Integration
· Simulation of a Robotic System: Use simulation software (e.g., Gazebo, MATLAB) to model a simple robotic movement.
o Outcome: A step-by-step guide with screenshots of the simulation process.
· AI and Machine Learning in Robotics: Research how AI and ML are integrated into modern robotics.
o Outcome: A report with examples of AI-powered robots.
· Introduction to ROS (Robot Operating System): Install ROS and run a basic command to understand its framework.
o Outcome: A screenshot of the installed ROS environment with basic commands executed.
Week 5: Autonomous Robotics & Ethical Considerations
· Object Detection in Robotics: Implement a basic object detection system using OpenCV and a webcam.
o Outcome: A working Python script with sample images.
· Building a Line-Following Robot: Design and program a simple line-following robot using sensors.
o Outcome: A circuit diagram, code, and explanation.
· Robotics in Healthcare: Research how robotics is transforming the healthcare industry.
o Outcome: A 5-minute video presentation or an infographic.
Week 6: Advanced Robotics Applications & Final Project
· Autonomous Navigation using Ultrasonic Sensors: Implement a system where a robot avoids obstacles using ultrasonic sensors.
o Outcome: A circuit diagram, Arduino code, and explanation.
· Introduction to Industrial Robots: Study and document the working principles of industrial robots like robotic arms and AGVs.
o Outcome: A case study with real-world industrial robot examples.
· Voice-Controlled Robot using Speech Recognition: Develop a simple voice-controlled robot using a microcontroller and speech recognition module.
o Outcome: A step-by-step guide with the implemented code.
· Ethical Considerations in Robotics: Research and write about the ethical challenges in robotics and automation.
o Outcome: A 700-word essay with real-world case studies.
· Future Trends in Robotics & Automation: Predict future advancements in robotics and their impact on society.
o Outcome: A report or blog post summarizing key trends and innovations.
Final Project: Smart Automation System
Participants will apply their skills to develop a fully functional robotics or automation project. Options include a robotic arm, an automated conveyor system, an AI-powered robot, or an industrial automation prototype.
· Outcome: A complete working project with documentation and a demonstration video.
Requirements
Laptop
Internet Connection
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To gain a foundational understanding of robotics and automation by exploring key concepts, historical developments, and their applications across industries.
To understand different types of robots, their features, and their applications across industries.
To identify and understand the fundamental components of a robot and their roles in its functioning.
To explore the role of sensors in robotics and their importance in perception and decision-making.
To understand different actuator types and how they enable robotic movement and functionality.
To develop a basic understanding of robot movement programming using Python or Arduino by implementing a simple forward and backward motion.
To understand the role of automation in industries and daily life by exploring real-world applications and their benefits.
To understand the role of PLCs in automation and create a flowchart illustrating a basic PLC-controlled process.
To conceptualize and design a basic robotic arm with 2-3 degrees of freedom, demonstrating its movement and function.
To simulate basic robotic movement using a simulation tool like Gazebo or MATLAB and document the process.
To understand the role of Artificial Intelligence (AI) and Machine Learning (ML) in robotics and how they enhance robotic capabilities.
To gain hands-on experience with ROS by installing it and executing basic commands.
To develop a basic object detection system using OpenCV and a webcam.
To design and program a basic line-following robot using sensors.
To explore how robotics is transforming healthcare by researching key applications and innovations.
To design and implement a system where a robot autonomously avoids obstacles using ultrasonic sensors.
To understand how industrial robots like robotic arms and automated guided vehicles (AGVs) function in manufacturing and logistics.
To build a simple voice-controlled robot that responds to basic commands using a speech recognition module.
To explore the ethical challenges in robotics and automation, including AI bias, job displacement, and decision-making autonomy.
To analyze upcoming advancements in robotics and predict their impact on industries and society.
