Embedded, IoT & Automation

Embedded Systems

Embedded systems are the hidden computers inside appliances, cars and machines. This course teaches you to program microcontrollers in C, interface with sensors and hardware, and build firmware that runs on real devices. It's ideal for electronics and ECE students wanting the programming skills that make hardware come alive.

Duration: 1.5 months
Format: Live 1-on-1
Level: Professional
Certificate: Osian NSDC

Overview

What this course is about

An embedded system must respond to the real world within clear hardware and software limits. This Embedded Systems course introduces that relationship through live one-on-one classes covering microcontrollers, digital logic, C programming, sensors and communication. You will connect a requirement to a block diagram, write firmware and test behaviour rather than only discuss electronics theoretically. It suits engineering students, hobbyists with basic programming and professionals entering embedded or IoT work.

Practical topics can include GPIO, timers, interrupts, ADC, PWM, UART, I2C, SPI, debouncing, state machines and debugging with serial output. The board may be Arduino, STM32 or another suitable microcontroller platform based on your goal and hardware access. Your teacher explains datasheets, pin planning, power awareness and modular code, while keeping experiments safe and small enough to troubleshoot methodically. Each test remains observable.

A capstone could be a sensor monitor, temperature display, motor control prototype or alert device with a documented circuit, firmware and test notes. You will learn to separate hardware faults from code faults and describe limitations honestly. Flexible timings, completion certificate and placement support through resume help, mock interviews and referrals help learners turn a working prototype into a clearer entry-level portfolio.

By the end

What you’ll be able to do

Explain the hardware and firmware blocks in a small embedded system
Program GPIO, timers, ADC, PWM and serial communication functions
Interface a sensor or actuator using a suitable microcontroller board
Apply interrupts, state machines and debouncing to responsive behaviour
Debug firmware with logs, measurements and a controlled test sequence
Document circuit connections, code structure, tests and known limitations

Syllabus

How the course flows

1
Electronics BasicsWeek 1
Circuits, components and safe hands-on work.
2
Microcontroller ProgrammingWeek 2
Programming boards to sense and respond.
3
Sensors & ActuatorsWeek 3
Reading the world and controlling devices.
4
ConnectivityWeek 4
Getting devices online and talking to each other.
5
Capstone BuildWeeks 5–6
A complete working project of your own.

Toolkit

Tools you’ll use

Arduino
Raspberry Pi
Sensors & modules
Python / C
PLC / SCADA

Audience

Who this course is for

Electronics and electrical engineering students building practical skills
C programmers moving towards microcontroller development
IoT beginners wanting a hardware and firmware foundation
Hobbyists ready to move beyond simple board demonstrations
Working technicians preparing for embedded support responsibilities

Where it leads

Roles this opens up

Embedded Firmware Trainee
Writes and tests small microcontroller programs under senior review.
Electronics Project Assistant
Supports sensor, actuator and prototype integration with basic documentation.
IoT Hardware Support Associate
Helps connect devices, inspect readings and troubleshoot early prototypes.

Questions

Before you enrol

Basic C variables, conditions, loops and functions are useful, but the teacher can revise them in the project context. Electronics familiarity helps with wiring and measurement safety.

The suitable board depends on the project, budget and your existing equipment, such as Arduino or STM32. Discuss the parts list before purchasing because sensors, cables and power supplies also matter.

Yes, live screen sharing, code review and camera views of a small circuit support practical guidance. You must arrange the board, components and safe workspace locally.

Embedded Systems concentrates on microcontroller firmware, hardware interfaces and timing. An IoT with Python pathway generally gives more attention to higher-level scripts, data handling and connected applications.

These are suitable communication topics and can be included through sensor or board exercises. The exact protocols covered depend on your selected hardware and project scope.

A sensor monitor, alert device, display controller or motor prototype can show firmware, wiring and testing. Include a block diagram, pin table, code notes and known limitations with the demonstration.