Class 10 : Robotics and Ai

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About Course

Welcome to the RobovexTech Advanced Robotics and Artificial Intelligence Course, a premier 150-day educational journey specifically engineered for Class 10 students. In an era where automation and machine learning define the global economy, this course provides the technical foundation and practical skills necessary to transition from a consumer of technology to a creator.

This industry-aligned program moves beyond basic hobbyist kits. It is a rigorous, comprehensive curriculum that merges mechanical engineering, electronic circuitry, C/C++ programming, and AI integration. Students will spend 150 days mastering the tools that power modern innovation, preparing them for future careers in STEM, Engineering, and Computer Science.

Comprehensive Curriculum & Modules

1. Electronics and Circuit Design

Before building complex robots, students must understand the “nervous system” of electronics. We cover:

  • Fundamental laws of electricity (Ohm’s Law, Voltage, and Current).

  • Component mastery: Resistors, Capacitors, Transistors, and LEDs.

  • Breadboarding techniques and circuit troubleshooting.

2. Embedded Systems with Arduino (Uno & Nano)

The heart of our robotics program lies in microcontrollers. Students learn:

  • Arduino IDE: Setting up the environment and uploading sketches.

  • C/C++ Programming: Learning variables, loops, conditionals, and functions specifically for hardware control.

  • Memory Management: Optimizing code for the Arduino Nano and Uno.

3. Sensors and Data Acquisition

Robots need to sense their environment. This module covers:

  • Ultrasonic Sensors: For distance measurement and collision avoidance.

  • Infrared (IR) & LDR: For line tracking and light-sensitive automation.

  • PIR and DHT: For motion detection and environmental monitoring (IoT).

4. Advanced Robotics and Kinematics

Moving from stationary circuits to mobile machines:

  • Motor Drivers: Controlling DC motors and Servos using L298N and similar drivers.

  • Differential Drive Systems: Building 2-wheel and 4-wheel robot chassis.

  • Robotic Arms: Understanding degrees of freedom (DoF) and mechanical leverage.

5. Artificial Intelligence and Machine Learning

We demystify AI by showing students how it interacts with the physical world:

  • AI Fundamentals: How machines “learn” through data and pattern recognition.

  • Model Integration: Using AI to make robots autonomous.

  • Computer Vision Basics: Introducing how robots see and identify objects.

50+ Hands-On Projects

Theory is only 30% of the experience. The remaining 70% is dedicated to building. Major projects include:

  • The Navigator: An autonomous obstacle-avoiding robot.

  • The Pathfinder: A high-speed line-following robot.

  • The Communicator: A Bluetooth-controlled vehicle operated via a custom Android/iOS app.

  • Smart Home Hub: An IoT-based automation system for lights and appliances.

  • The Guardian: An AI-powered security robot that recognizes movement patterns.

Learning Outcomes

By the end of this 150-day program, students will achieve the following:

  • Technical Proficiency: Ability to read circuit diagrams and build hardware from scratch.

  • Coding Expertise: Writing functional, bug-free C/C++ code for embedded systems.

  • Analytical Thinking: Using engineering logic to troubleshoot complex technical errors.

  • Portfolio Building: A collection of 50+ projects to showcase for future academic applications.

  • AI Readiness: A foundational understanding of how AI models are deployed in real-world hardware.

 

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What Will You Learn?

  • The RobovexTech Advanced Robotics & Artificial Intelligence Course is an industry-aligned, 150-day program designed for Class 10 students. This comprehensive curriculum bridges the gap between basic electronics and high-level autonomous systems. By combining Arduino programming, sensor integration, and machine learning, students transition from technology consumers to innovative engineers.
  • Through 50+ hands-on projects, students master the mechanics of building intelligent robots, IoT smart home systems, and AI-powered automation. Whether you are aiming for a career in STEM, Computer Science, or Robotics Engineering, this course provides the technical portfolio and certification needed to excel.
  • What You Will Learn
  • By the end of this 150-day specialization, you will master the following core domains:
  • Embedded Systems: Master Arduino Uno and Nano boards using C/C++ programming.
  • Electronics Engineering: Design and prototype circuits using Breadboards, LDRs, LEDs, and Relays.
  • Sensor Intelligence: Interface 15+ sensors including Ultrasonic (HC-SR04), MPU-6050 (Gyro), and RFID.
  • Artificial Intelligence: Understand Machine Learning, Pattern Recognition, and Computer Vision.
  • Wireless Communication: Build long-range systems using GSM Modules and Bluetooth (HC-05).
  • IoT & Automation: Create Smart Agriculture and Home Automation systems with cloud integration.
  • Course Curriculum & Modules
  • Module 1: Foundations of Robotics
  • Introduction to Robotics: The Input-Process-Output Model
  • Basic Electronics: Understanding Voltage, Current, and Ohm’s Law
  • Component Identification: Resistors, Capacitors, and Transistors
  • Module 2: Arduino Programming (C/C++)
  • Setting up the Arduino IDE and Driver Installation
  • Coding Logic: Variables, If-Else Statements, and Loops
  • Digital vs. Analog I/O Operations
  • Module 3: Advanced Sensor Integration
  • Distance Sensing: Precision measuring with Ultrasonic sensors.
  • Biometrics: Heart rate monitoring with Pulse Sensors.
  • Environment: Soil Moisture and Water Level monitoring for Smart Farming.
  • Security: Motion detection with PIR and Laser Tripwires.
  • Module 4: Robotics & Motion Control
  • Motor Drivers: Working with L298N and DC Motors.
  • Precise Positioning: Controlling Servo Motors.
  • Project: Building a Self-Balancing Robot using the MPU-6050.
  • Module 5: AI, Drones & Future Tech
  • Fundamentals of Artificial Intelligence and Machine Learning models.
  • Drone Aerodynamics: The physics of flight and quadcopter components.
  • Capstone Project: Building an AI-Powered Smart Sorting Machine.
  • Hands-On Project Portfolio
  • Students will complete 50+ Projects, including these highlights:
  • The Pathfinder: High-speed Line Following Robot.
  • The Guardian: SMS-based Fire Alert System using GSM & Flame Sensors.
  • Smart Access: RFID-based Attendance and Door Lock System.
  • Agriculture Pro: Automated Irrigation using Soil Moisture Sensors.
  • Gesture Control: Hand-motion controlled robot using MPU-6050.
  • Solar Tracker: Solar-powered dual-axis light tracking system.
  • Course Highlights
  • 150 Days of structured, step-by-step learning.
  • 70% Practical sessions with real-world hardware.
  • Industry-Relevant Skills for future engineering careers.
  • Beginner to Advanced progression (No prior coding required).
  • Professional Certification upon successful completion.

Course Content

Foundations of Robotics & Electronic Systems
Welcome to the first milestone of your journey into the future of technology. In this introductory module, we peel back the layers of what makes a machine "intelligent." Robotics is not just about metal and wires; it is the perfect harmony of Mechanical Engineering, Electronics, and Computer Science. In Topic 1, we establish the foundational principles that allow us to build systems capable of interacting with the physical world. We will explore the history of the field, the anatomy of a robot, and the fundamental laws of electricity that govern every circuit you will build over the next 150 days. Detailed Lesson Content 1. Defining the Robot: The Three Laws and Beyond A robot is defined as a re-programmable, multi-functional manipulator designed to move material, parts, or specialized devices through variable programmed motions. To understand modern robotics, we look at the core components: The Brain (Microcontroller): The decision-making unit (Arduino). The Body (Chassis/Frame): The structural support. The Senses (Sensors): How the robot perceives light, sound, and distance. The Muscles (Actuators): Motors and servos that create physical movement. 2. The History and Evolution of Automation We trace the lineage of robotics from the early "automata" of ancient Greece to the industrial arms of the 1960s (Unimate), and finally to modern AI-driven humanoids like Sophia and Tesla’s Optimus. Understanding where we came from helps us predict where the industry is going. 3. Basic Electronics: The Language of Hardware Before we write a single line of code, we must understand how power moves. Topic 1 covers: Voltage (V): The electrical pressure (measured in Volts). Current (I): The flow of electrons (measured in Amps). Resistance (R): The friction that slows down current (measured in Ohms). Ohm’s Law (V=I×R): The most critical formula in electronics that helps us prevent components from burning out. 4. Identifying Core Components Students will be introduced to their starter kits, learning to identify: Resistors: Used to limit current. LEDs (Light Emitting Diodes): Our first output device. Breadboards: The platform for prototyping circuits without soldering. Jumper Wires: The "veins" that connect our components.

  • History of Mechine , Robot , Sensor And Ai
  • The Anatomy of a Robot: Input, Process, and Output
  • Introduction to Basic Electronics: Voltage, Current, and Resistance
  • Mastering Ohm’s Law and Circuit Calculations
  • Identifying Components: Resistors, LEDs, and Breadboards

The Brain of the System – Introduction to Arduino

Programming Logic in C/C++

Sensing the World – Digital & Analog Sensors

Actuators and Motion Control

Mobile Robotics – Building Your First Rover

Advanced Navigation Algorithms

Wireless Communication & IoT

Smart Home Automation

Mechanical Design & Robotic Arms

Artificial Intelligence Fundamentals

Integrating AI with Robotics

Drone Technology & Aerial Robotics

Soil Moisture Sensor (Agriculture & IoT)

Flame Sensor (Safety & Security)

MPU-6050 (Gyroscope & Accelerometer)

RFID Module (Access Control)

GSM Module (Long-Range Communication)

Ultrasonic Sensor (HC-SR04 – Navigation)

Pulse/Heart Rate Sensor (Healthcare)

Touch & Laser Diode (Interactivity & Security)

7-Segment Display & Water Level

PIR Sensor (Automation)

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