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Class 11-12Advanced

Advanced Pre-Engineering - 9 Months

Full-stack robotics and IoT for Class 11-12. Deep dive into ROS, Raspberry Pi, and complex automation.

Skill Focus:IoT Protocols (MQTT)Python ProgrammingSystem ArchitectureProduction Standards
Duration
9 Months
Sessions
72 Sessions
Hours
108 Hours
Students
0 Students

Instructor: Sarvtra Expert

IoTRaspberry PiPythonEngineeringCloud
Advanced Pre-Engineering - 9 Months
24,99929,99917% OFF
72 sessions total
Robotics Kit Included
Certification on completion

Detailed Project Manual

The Pre-Engineering Laboratory

Welcome to the most intensive K-12 engineering program in the country. Our Advanced Track is not just about building kits; it is about architectural thinking. Students learn how to build systems that are secure, efficient, and cloud-connected.

  • 🚀

    90-Day Industry Capstone Project

  • 🎓

    College-Level Labs & Certification

Safety First

1

Use an ESD wrist strap when handling the ESP32 to prevent damage from static.

2

NEVER connect the submersible pump directly to the microcontroller; always use the relay driver.

3

Check power ratings before connecting long-range power adapters.

Pro Tip: Read all instructions before starting the build to ensure a smooth making experience.

What's in the Kit?

Advanced Computing

ESP32 Development Board (Wi-Fi + BT)
1 pc
OLED Display (128x64 I2C)
1 pc
DHT22 High-Accuracy Sensor
1 pc

Automation Components

5V Single Channel Relay Module
1 unit
Micro Submersible Water Pump
1 pc
Capacitive Soil Moisture Sensor
1 pc

Step-by-Step Build Manual

1

IoT Cloud Setup

  • Create an account on an IoT Cloud platform (Blynk or Adafruit IO).
  • Generate the API Authentication tokens.
  • Design the mobile dashboard with gauge and switch widgets.

Expected: Cloud backend configured

2

Sensor Hub Configuration

Parts:ESP32DHT22Moisture Sensor
  • Calibrate the moisture sensor (Dry value vs Wet value).
  • Connect the DHT22 for temperature and humidity data.
  • Program the ESP32 to send data to the cloud via Wi-Fi.

Tip: Use deep-sleep mode in ESP32 for battery-powered deployment.

Expected: Data streaming active

3

Automation Bridge

Parts:Relay moduleWater pump
  • Wire the pump through the N.O. (Normally Open) terminal of the relay.
  • Implement the logic: If Soil Moisture < 30%, Turn ON Pump.
  • Add a manual override switch in the mobile app.

Expected: Closed-loop automation ready

4

Optimization & Dashboarding

  • Optimize code for multi-threading (RTOS) to handle sensor reading and Wi-Fi simultaneously.
  • Add historical data logging (Google Sheets integration).
  • Final stress test: Simulate low moisture and check pump response time.

Expected: Production-ready Smart Farm System

Learning Outcomes

Full-stack IoT implementation
Cloud-to-Device (C2D) communication
Professional circuit design on PCB
Production level Python/C++ development

Course Curriculum

Extension Activities (Optional)

Integrate a Solar Panel with MPPT Charge Controller for off-grid use

Add a LoRa module for 5km+ range sensor transmission

Use Computer Vision to detect plant health (requires Raspberry Pi add-on)

Teacher's Note

This track simulates real engineering challenges. Encourage students to document their edge cases and failure points.