Course Structure for Beginner Robotics: This course focuses on Robotics, Tinkercad, Arduino, and Sensors. It introduces students to foundational concepts through hands-on learning, simulations, and creative projects.
Course Title: Robotics and Electronics with Arduino and Sensors
Duration:
• Weekly: 1–2 sessions (40–60 minutes each) • Total: 30–40 lessons per academic year
Learning Objectives:
By the end of this course, students should:
1. Understand the basic principles of robotics and electronics.
2. Use Tinkercad for 3D design and Arduino simulations.
3. Build and program robots and circuits using Arduino.
4. Learn how sensors work and apply them in real-world projects.
5. Develop logical thinking and problem-solving skills through hands-on projects.
Course Structure
Unit 1: Introduction to Robotics and Electronics (6 Lessons)
1. What is Robotics?
✅ Definition and examples of robots.
✅ Components of a robot: controller, sensors, actuators. 2. Basics of Electronics
✅ What are circuits?
✅ Basic electronic components: LEDs, resistors, switches, and batteries. 3. Getting Started with Arduino
✅ Introduction to Arduino boards.
✅ Understanding pins and connections (digital, analog, power).
Unit 2: 3D Design and Tinkercad (6 Lessons)
1. Introduction to Tinkercad
✅ Overview of the Tinkercad platform.
✅ How to create basic 3D models. 2. Tinkercad Circuits
✅ Simulating circuits with LEDs, resistors, and batteries
✅ Introduction to virtual Arduino programming in Tinkercad. 3. Design Challenge
✅ Create a simple robot chassis using Tinkercad 3D design tools.
Unit 3: Arduino Programming Basics (10 Lessons)
1. Understanding Arduino IDE
✅ Installing the Arduino IDE.
✅ Writing and uploading a basic program. 2. Programming Basics
✅ Concepts: variables, loops (for, while), and conditionals (if-else). 3. Hands-On Programming
✅ Controlling LEDs: blink, fade, and multiple LED patterns.
✅ Programming buttons to control outputs.
Unit 4: Sensors and Actuators (10 Lessons)
1. Introduction to Sensors
✅ What are sensors? Types and applications.
✅ Light sensors, temperature sensors, ultrasonic sensors, etc. 2. Working with Sensors
✅ Light Sensor (LDR): Adjust LED brightness based on light intensity.
✅ Ultrasonic Sensor: Measure distance and trigger an action (e.g., buzzer or motor). 3. Actuators in Action
✅ Servos and Motors: Controlling movement.
✅ Building a simple motorized mechanism.
4. Mini-Projects with Sensors
✅ Create a smart light system using LDR.
✅ Build a simple obstacle-avoiding car using an ultrasonic sensor.
Unit 5: Robotics Projects and Innovation (8 Lessons)
1. Assembling a Robot
✅ Integrating Arduino, motors, and sensors.
✅ Building the physical structure (chassis, wheels, connections). 2. Programming the Robot
✅ Uploading code for autonomous actions.
✅ Testing and debugging robot functions. 3. Student Projects
✅ Encourage creativity: Design and build unique robots or sensor-based systems.
✅ Examples: Line-following robot, automated plant watering system.
Unit 6: Ethics and Future of Robotics (Optional, 2–4 Lessons)
1. The Role of Robotics in Society
✅ How robotics is changing industries.
✅ Discuss examples like delivery robots, drones, and medical robots. 2. Ethics in Robotics
✅ Safe and responsible use of technology.
✅ Environmental impact and sustainability.
Assessment and Evaluation
1. Class Participation (20%)
✅ Active involvement in activities and discussions. 2. Mini-Projects (30%)
✅ Functionality and creativity in small hands-on projects. 3. Final Project (40%)
✅ Complexity, innovation, and teamwork in the final robotics project. 4. Quizzes and Worksheets (10%)
✅ Short tests on theoretical concepts and programming basics.
Required Materials and Tools
1. Hardware:
✅ Arduino UNO boards.
✅ Basic electronic components: LEDs, resistors, breadboards, sensors (LDR, ultrasonic, temperature).
✅ Motors, wheels, servos, and robot chassis kits. 2. Software and Platforms:
✅ Arduino IDE (for programming).
✅ Tinkercad (for 3D design and circuit simulation). 3. Other Resources:
✅ Laptops or tablets for coding.
✅ Internet access for tutorials and simulations.
Pedagogical Approach
• Hands-On Learning: Focus on building and testing physical projects. • Interactive Tools: Use Tinkercad for simulations and creativity. • Problem-Based Learning: Assign real-world challenges for students to solve. • Collaboration and Creativity: Group activities to foster teamwork and innovation.
Course Fees
₹2999
Best Price
₹2500
Start Your Journey?
Contact us to enroll in a class or inquire about our products.
Ready to Become a Techno Tactician?
Take the first step towards a brilliant future. Schedule a free, no-obligation counselling session with our academic experts today.