The Advanced Mechatronics Bootcamp: From Circuits to the Cloud

An accelerated, professional-grade robotics and IoT program. Designed for high school graduates and matriculated students, this intensive 8-week bootcamp bridges the gap between basic electronics and modern industrial automation. Students will rapidly progress from basic Arduino logic to building high-speed autonomous Line Followers, wearable Hand-Gesture controllers, and 220V cloud-connected Smart Home systems.

Quick Details:        

• Target Audience: Matriculated students (basic physics/computer knowledge required)
• Duration: 8 Weeks (16 Days)
• Schedule: Weekends | 2 Hours per Session
• Format: Fast-paced, 100% Hands-On & Project-Based

The 8-Week Masterclass Curriculum

Week 1: The Engineering Foundation (Sensors & Microcontrollers) Since students know basic physics, we fast-track hardware logic and dive straight into coding.

• Day 1 – Circuits & Arduino Fundamentals
  • Quick refresher: Breadboards, Voltage, Current, and Pull-up/down resistors.
  • Meet the Arduino UNO: IDE setup and C++ syntax.
  • Hands-on: Digital I/O (Blinking LEDs and coding toggle switches).
• Day 2 – Analog Control & Environmental Sensing
  • Understanding Analog-to-Digital Converters (ADC) and PWM.
  • Interfacing LDRs (Light) and IR Obstacle sensors.
  • Hands-on: Building a smart automated nightlight using potentiometers and LDRs.

Week 2: Autonomous Mobility (The Line Follower) Moving from static breadboards to heavy-duty mechanical engineering.

• Day 3 – Chassis Mechanics & L298N Motor Control
  • Assembling the 4WD robotic chassis and wiring high-current 18650 batteries.
  • Wiring the L298N Motor Driver.
  • Coding "Differential Drive" logic (Forward, Back, Left, Right).
• Day 4 – IR Reflective Sensors & LFR Logic
  • Mounting TCRT5000 downward-facing IR sensors.
  • Coding the brain: Using If/Else conditional statements for track detection.
  • Hands-on: First live track test of the Line Follower Robot (LFR).

Week 3: LFR Mastery & The ESP32 Upgrade Perfecting autonomous movement and upgrading to industry-standard microchips.

• Day 5 – LFR Speed Tuning & Momentum
  • Physics in action: Understanding momentum and centrifugal force on corners.
  • Tuning PWM speeds and calibrating sensors for high-speed track navigation.
• Day 6 – The ESP32 Super-Brain & ESP-NOW
  • Swapping the Arduino for the ESP32 (Understanding dual-core and 3.3V logic).
  • Introduction to ESP-NOW (Router-less, machine-to-machine wireless protocol).
  • Hands-on: Pairing two ESP32 boards to send a basic wireless signal across the room.

Week 4: Teleoperation (Hand-Gesture Control) Merging wireless data packets with motion tracking for advanced teleoperation.

• Day 7 – Motion Tracking (MPU6050)
  • Wiring the 3-axis Accelerometer & Gyroscope via I2C.
  • Decoding gravity: Translating raw X/Y/Z math into Pitch and Roll angles.
• Day 8 – 🛠️ Project Build: The Magic Glove
  • Coding the Sender (Glove) to transmit hand angles via ESP-NOW.
  • Coding the Receiver (Robot) to map those angles to L298N motor speeds.
  • Hands-on: Driving the 4WD robot entirely via hand gestures!

Week 5: The Internet of Things (IoT) Connecting hardware to the global internet.

• Day 9 – Wi-Fi Protocols & Blynk Cloud
  • Connecting the ESP32 to a local Wi-Fi router.
  • Setting up the Blynk Cloud dashboard and understanding Virtual Pins.
• Day 10 – Environmental Telemetry
  • Wiring the DHT11 (Temperature & Humidity) sensor.
  • Coding the ESP32 to push live environmental data to the cloud.
  • Hands-on: Viewing live room telemetry on a smartphone app.

Week 6: High Voltage & Smart Relays Crucial safety training and interacting with real household AC power.

• Day 11 – AC Safety & Relay Mechanics
  • CRITICAL: AC vs. DC safety rules and using a Voltage Tester Screwdriver.
  • Understanding electromechanical relays (Normally Open vs. Normally Closed).
  • Testing the relay with a safe 9V load.
• Day 12 – 🛠️ Project Build: The Web-Controlled Smart Plug
  • Safely stripping and wiring a 220V AC bulb socket through the relay.
  • Using the Voltage Tester to verify the circuit is dead before handling.
  • Hands-on: Controlling a real 220V household lamp from the Blynk smartphone app.

Week 7: Cloud Automation & Logic Rules Making the smart home think for itself.

• Day 13 – Programming Cloud Automations
  • Writing "If/Then" logic inside the Blynk cloud.
  • Example: “If DHT11 Temp 30°C, turn ON the AC Fan Relay.”
  • Example: “If LDR detects darkness, turn ON the AC Light Relay.”
• Day 14 – Smart Home Assembly
  • Integrating all sensors (DHT11, LDR) and multiple relays onto a single system.
  • Mounting the hardware into a demonstration model.

Week 8: The Grand Exhibition The ultimate test of skills and final presentations.

• Day 15 – Capstone Project Prep & Debugging
  • Students split into two tracks based on preference: Optimizing their Hand-Gesture Robot for the obstacle course, OR perfecting their Smart Home automation model.
  • Deep debugging and code cleanup.
• Day 16 – Final Showcase & Graduation
  • The LFR Speed Trial & Gesture Course: Live robotics demonstration.
  • The Smart Home Pitch: Live demonstration of global IoT control.
  • Evaluations, course feedback, and official Bootcamp Certification!

• Here is the consolidated Master Equipment List for the 8-Week Advanced Mechatronics Bootcamp.
• By grouping everything into one kit, you provide students with a comprehensive toolkit that takes them from basic breadboarding all the way to cloud-connected AC control.
  

The Master Bootcamp Kit (Per Student)

• Section 1: The Brains (Microcontrollers & Logic)

• Section 2: Mobile Robotics & Chassis

• Section 3: Sensors & Teleoperation

• Section 4: Basic Components & Output

• Section 5: High Voltage & Smart Home Safety