Robotics & Embedded Systems

Design, program & control intelligent robots and autonomous systems.

Learn robotics engineering from perception to control — Python & C++ embedded programming, sensor integration, motor actuators, Robot Operating System (ROS 2), computer vision, and autonomous navigation.

Duration3 Months
FormatLive Labs & Projects
LanguagesEnglish, Tamil, Hindi
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Get Course Syllabus & Fee Details

THE METHODOLOGY

How You'll Progress Through This Program

01LEARN

Foundations & Syntax

Understand core concepts, architecture patterns, and algorithmic thinking.

02BUILD

Hands-on Exercises

Construct isolated modules, APIs, pipelines, and component units in live labs.

03CONNECT

Integration & DB

Tie together databases, third-party APIs, authentication, and state stores.

04DEPLOY

Docker & Cloud

Package code into production containers with automated test suites.

05SHIP

Portfolio Capstone

Publish complete codebases with clean Git history for technical interviews.

IN-DEPTH ROADMAP

A curriculum built around real engineering

MODULE 01

Robotics Fundamentals & Embedded Programming

4 Weeks

Embedded C++ & Python, microcontrollers (Arduino/ESP32/Raspberry Pi), GPIO, digital/analog I/O, and PWM.

What You Will Learn

  • Robotics architecture: sensors, actuators, controllers, and communication buses (UART, I2C, SPI)
  • Embedded C++ programming: memory management, pointers, registers, and interrupts
  • Microcontroller interfacing: GPIO pins, analog-to-digital converters (ADC), and PWM signals
  • Actuator control: DC motors, servo motors, stepper motors, and H-bridge motor drivers
  • Sensor reading: ultrasonic, IMU (accelerometer/gyroscope), infrared, and encoders
Hands-on Lab Deliverable

Build a PID-controlled motor speed and position regulation system with encoder feedback and ESP32.

THE TOOLCHAIN

How the engineering stack connects

You won't learn isolated tools. You'll understand how databases, APIs, client interfaces, and cloud deployments operate as a unified system.

Robotics Middleware

ROS 2 (Humble / Iron)

Industry-standard open-source robotics middleware for distributed robot control

Programming

Python & C++

Primary languages for high-level algorithm logic and low-level embedded control

Computer Vision

OpenCV

Real-time computer vision library for visual perception and camera tracking

Simulation

Gazebo

3D physics simulator for testing robot models and sensor configurations

Microcontrollers

Arduino & ESP32

Embedded hardware platforms for low-level sensor reading and actuator control

Single Board Computer

Raspberry Pi

Embedded Linux compute for executing ROS 2 nodes and computer vision

Sensors

LiDAR & Depth Cameras

3D spatial perception sensors for SLAM mapping and autonomous obstacle avoidance

Visualization

URDF & RViz

Robot modeling format and 3D sensor data visualization tool

PRODUCTION STANDARDS

Build. Deploy. Prove.

Every project you complete at AIRA follows the exact engineering workflows expected in top tech organizations.

01 / REPOSITORY ARCHITECTURE

Clean Git & Test Suites

Feature branch workflows, automated unit tests with pytest, strict linting, and meaningful commit messages.

02 / REPRODUCIBILITY

Containerized Environments

Multi-stage Dockerfiles and Docker Compose files ensuring zero environment mismatches between local and cloud.

03 / LIVE VERIFICATION

Live Cloud Deployments

Automated continuous deployment to cloud infrastructure providing live demonstration URLs for interviewers.

REAL DELIVERABLES

Capstone projects you will ship

Concrete codebases solving authentic technical requirements.

PROJECT 01Autonomous Systems

Autonomous Mobile Robot (AMR) with LiDAR SLAM

Differential-drive autonomous robot mapping indoor environments with LiDAR and navigating around dynamic obstacles.

ROS 2PythonC++LiDARNav2Gazebo
Architecture Deliverable

Costmap layer integration with dynamic obstacle footprint recalculation.

PROJECT 02Industrial Robotics

Vision-Guided 4-DOF Robotic Arm Sorting System

Articulated robotic arm integrating computer vision to detect, classify, and sort industrial components into bins.

OpenCVPythonInverse KinematicsArduinoServo Actuators
Architecture Deliverable

Closed-loop visual servoing aligning gripper end-effector coordinates with detected centroid.

PROJECT 03Control Systems

Self-Balancing Inverted Pendulum Robot

Two-wheeled dynamic robot maintaining vertical equilibrium using IMU sensor fusion and real-time PID control.

C++ESP32MPU-6050 IMUKalman FilterPID Control
Architecture Deliverable

Complementary Kalman sensor fusion filtering out high-frequency accelerometer noise.

CAREER DIRECTIONS

Target technical roles

Robotics Software Engineer

Develops ROS 2 control nodes, perception pipelines, and autonomous navigation algorithms.

Embedded Systems & IoT Engineer

Programs microcontrollers, sensor interfaces, and communication protocols for hardware.

Automation & Control Engineer

Designs industrial robotic manipulators, PLC integration, and automated assembly cells.

PROGRAM ADMISSION

All-Inclusive Program Fee

Complete industry curriculum, live 1:1 mentorship, capstone project evaluations, and placement support.

All-Inclusive Access
COMPLETE PROGRAM

Robotics & Autonomous Systems

3 Months structured curriculum with all project labs & mentorship.

₹25,000all modules & mentorship included
All modules & lab exercises
Weekly 1:1 mentorship & reviews
Capstone project evaluations
Resume & technical mock drills
Direct referrals to hiring partners
Certificate of Completion
QUESTIONS & ANSWERS

Frequently Asked Questions

No. The course covers all required circuit basics, sensor wiring, motor driver interfacing, and kinematic physics concepts step-by-step alongside programming.