PRACTICAL ROBOTICS, AI & GROWTH ASSISTED TRAINING INITIATIVE.
A DUAL-PHASE, HANDS-ON FELLOWSHIP IN EMBEDDED SYSTEMS,
EDGE COMPUTING AND ROBOTICS.
Pinout mapping, non-blocking timing and 12-bit ADC reading lead into an I2C environmental monitoring workstation combining an LCD, temperature sensor and ultrasonic sensor.
Transistor switching and H-Bridge control lead into a relay-and-servo control station and a 2WD robotic chassis capable of autonomous obstacle avoidance.
AP/STA modes and publish-subscribe architecture power a local Wi-Fi dashboard, then a live MQTT cloud stream of sensor telemetry and remote triggers.
Trainees draft and defend a 1-page Project Architecture Proposal, then source components and assemble breadboard circuits for their own MVP.
Local sensing, actuation and cloud triggers merge into a unified non-blocking firmware loop, housed in a physical enclosure and stress-tested for power draw.
Final code review and BOM documentation lead to the Dual-Evaluation Defense — trainees present their finished prototype to a panel.
Lab-grade components, tested and dispatched free via India Post Speed Post with a live consignment tracker — a foolproof wiring guide and starter code are included.
Does the physical prototype function reliably, and is the code structured, non-blocking and documented on GitHub?
Can the trainee explain their project's core mechanics to a non-technical Class 6 student in under 3 minutes?
Practical Robotics, AI & Growth Assisted Training Initiative