Certification Course in Embedded Systems Design with STM32 & ARM Cortex-M
This comprehensive certification course offers in-depth training in embedded systems design using STM32 microcontrollers based on ARM Cortex-M architecture.
Targeted at learners with foundational knowledge, the course covers advanced topics including Embedded C programming, ADC integration, LCD interfacing, UART communication, timer management, and motor control.
Learners will complete a series of structured projects combining real-time hardware implementation and Proteus simulations, providing practical experience in developing, debugging, and deploying embedded applications.
Utilizing STM32CubeIDE, the course equips learners with the expertise necessary for professional roles in embedded system development, automation, and control systems.
At a glance
- 9 Modules
- 58 Topics
- 19.2 Hours Video Content
- 1 Project Assignment
- Certficate of Complication
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LevelExpert
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Total Enrolled175
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Duration19 hours 12 minutes
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Enrollment validityEnrollment validity: Lifetime
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CertificateCertificate of completion
Course Curriculum
Welcome to the Course!
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Module 1: Fundamentals of Embedded C using STM32CubeIDE
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Topic 1: Introduction to Embedded C
07:02 -
Topic 2: Setting up and installation of STM32CubeIDE
18:45 -
Topic 3: Understanding of Code Organization
12:18 -
Topic 4: Basics of C Programming for Embedded Systems
11:05 -
Topic 5: Constants in C – Static, Volatile, and Constant Parameters
23:33 -
Topic 6: Variables and data types- Selection and usage rules
16:56 -
Topic 7: Structure of a C program
21:46 -
Topic 8: If Conditional statements
23:53 -
Topic 9: Enumerations (ENUMS) in C
20:10 -
Topic 10: Switch case statements: syntax and usage
16:59 -
Topic 11: Loops in C- For And While
14:01 -
Topic 12: Functions in C: declaration and implementation
19:21 -
Topic 13: Pointers in C
23:18 -
Topic 14: Macros in Embedded C
14:38
Module 2: LED Blinking Project using STM32CubeIDE
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Topic 1: Project 1 – LED Blinking with STM32CubeIDE
23:43 -
Topic 2: Project 2 – LED Blinking Across Multiple GPIO Ports in STM32
21:23 -
Topic 3: Project 3 – LED Blinking Using Arrays
22:20
Module 3: Single & Dual Seven Segment Display with STM32
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Topic 1: Project 1.1 – Interfacing Single Seven Segment: Programming
26:57 -
Topic 2: Project 1.2 – Interfacing Single Seven Segment: Simulation in Proteus
10:34 -
Topic 3: Project 2.1 – Interfacing Double Seven Segment: Programming
22:33 -
Topic 4: Project 2.2 – Interfacing Double Seven Segment: Completing Code
24:05 -
Topic 5: Project 2.3 – Interfacing Double Seven Segment: Simulation in Proteus
15:15
Module 4: Working with LCDs on STM32 — Three Hands-On Projects
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Topic 1: Project 1.1 – Interfacing LCD: Hardware Setup & Basic Command Programming
27:05 -
Topic 2: Project 1.2 – Interfacing LCD: Initialization & String Display Functions
14:07 -
Topic 3: Project 1.3 – Interfacing LCD: Simulating LCD Character Display in Proteus
14:27 -
Topic 4: Project 2.1 – LCD Character Rotation: Pinout, Clock & GPIO Configuration
26:10 -
Topic 5: Project 2.2 – LCD Character Rotation: Initialization & Positioning
15:17 -
Topic 6: Project 2.3 – LCD Character Rotation: Loop Structures to LCD Setup in Proteus
16:23 -
Topic 7: Project 2.4 – LCD Character Rotation: Proteus Simulation
06:33 -
Topic 8: Project 3.1 – Printing Custom Characters in LCD
22:51 -
Topic 9: Project 3.2 – Printing Custom Characters in LCD: Pin & Clock Setup
26:46 -
Topic 10: Project 3.3 – Printing Custom Characters in LCD: Using LCD Functions to write characters
26:11 -
Topic 11: Project 3.4 – Printing Custom Characters: Simulation in Proteus
19:40
Module 5: STM32 ADC: From Simulation to Hardware
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Topic 1: Introduction to ADC in STM32
06:40 -
Topic 2: Project 1.1 – ADC Reading Using a Potentiometer: Pin Configuration & ADC Code Setup
21:46 -
Topic 3: Project 1.2 – ADC Reading Using a Potentiometer: Real-Time Simulation
13:02 -
Topic 4: Project 2.1 – ADC Hardware Display on LCD: Project Setup & Code Initialization
28:13 -
Topic 5: Project 2.2 – ADC Hardware Display on LCD: Function Programming
15:57 -
Topic 6: Project 2.3 – ADC Hardware Display on LCD: Debugging & Real-Time Output
25:12
Module 6: STM32 Advanced ADC Projects — Single and Multi-Channel ADC with LCD Display
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Topic1: Project 1.1 – Same ADC Diff Channels: Board Setup & LCD Command Basics
23:34 -
Topic 2: Project 1.2 – Same ADC Diff Channels: LCD Display Logic & Channel Positioning
24:51 -
Topic 3: Project 1.3 – Same ADC Diff Channels: While Loop & Real-Time Display
29:02 -
Topic 4: Project 2.1 – Diff ADC Diff Channels: Board & Pin Setup, ADC Initialization
25:46 -
Topic 5: Project 2.2 – Diff ADC Diff Channels: LCD Write, GPIO-LCD Integration
28:48 -
Topic 6: Projcet 2.3 – Diff ADC Diff Channels: ADC Conversion & Real-Time Display
27:22
Module 7: STM32 Timer Basics and LED Toggling Projects
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Topic 1: Introduction to Timers in STM32
07:34 -
Topic 2: Project 1.1 – Timer 500ms Toggling LED: Timer Setup & Configuration
21:08 -
Topic 3: Project 1.2 – Timer 500ms Toggling LED: Coding & Real-Time Simulation
16:44 -
Topic 4: Project 2.1 – Timer 1s Toggling LED: Timer Setup & Configuration
27:42 -
Topic 5: Project 2.2 – Timer 1s Toggling LED: Programming & Real-Time Simulation
11:41 -
Topic 6: Project 3.1 – Timer Interrupt LED Toggle: Setup, NVIC & IRQ Handling
27:11 -
Topic 7: Project 3.2 – Timer Interrupt LED Toggle: Coding & Simulation
33:14
Module 8: STM32 Timer Interrupts with UART Callback
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Topic 1: Project 1.1 – Timer Int Call UART: Setup, & LED Toggle via Callback
27:15 -
Topic 2: Project 1.2 – Timer Int Call UART: UART Send to Docklight Callback
20:30 -
Topic 3: Project 1.3 – Timer Int Call UART: Timer Logic, Volatile & Callback Concepts
11:17 -
Topic 4: Project 1.4 – Timer Int Call UART: Callback Handling & Real-Time Simulation
27:10
Module 9: STM32 Motor Control — Stepper and Servo Motors
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Topic 1: Stepper Motor – Fundamentals, Configuration, & Real-Time STM32 Control
22:40 -
Topic 2: Servo Motor – PWM Concepts, Programming & Real-Time STM32 Control
28:07
DIY Projects:
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Project: Design and Implementation of Embedded Systems Applications Using STM32 – A Practical Approach to GPIO, ADC, Timers, Displays, and Motor Control
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Congratulations on Successfully Completing the Course!
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Student Ratings & Reviews
Hardware & Software Required
Hardware: STM32 development board (e.g., STM32F4 Discovery or STM32 Nucleo), Multimeter, Oscilloscope, Sensors (voltage, current), Breadboard, Power supply, CAN transceiver.
Software: STM32CubeIDE, STM32CubeMX, Keil MDK-ARM, Proteus for simulation.
DIY Projects Included
 Project: Development of an Advanced Embedded System for Electric Vehicle Battery Monitoring and Protection
The project involves designing and developing an embedded system based on the ARM Cortex-M4 microcontroller to monitor battery voltage, current, and energy consumption in electric vehicles. The system will include safety features for detecting overcurrent and provide real-time data via CAN communication.
Course Benefits
For Professionals:
- Master STM32 programming on ARM Cortex-M for embedded applications.
- Design real-time embedded systems with hands-on projects
- Gain expertise in UART, timers, and PWM motor control.
- Learn hardware debugging, Proteus simulation, and STM32CubeIDE deployment.
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Boost career opportunities in automotive and industrial embedded systems.
For Freshers:
- Get trained in STM32 microcontrollers and Embedded C.
- Complete practical projects with LEDs, LCDs, ADCs, and motors.
- Understand real-time systems and UART communication basics.
- Build a strong foundation for embedded systems careers.
- Improve job readiness for automotive and electronics industries.
Technical expertise you will gain
- Develop & Program embedded applications using STM32 microcontrollers based on ARM Cortex-M architecture.
- Write, debug, & optimize Embedded C code for real-time hardware interfacing and control.
- Implement UART communication protocols and configure timer interrupts for efficient embedded system operation.
- Interface and control a variety of peripherals including LEDs, LCDs, 7-segment displays, ADCs, and motors (stepper and servo) using STM32 MCUs.
- Perform simulation and testing of embedded designs with Proteus, alongside real-time hardware deployment using STM32CubeIDE.
- Acquire practical skills in timer management, GPIO configuration, ADC signal processing, and PWM-based motor control.
- Automotive Embedded Systems
- Power Electronics Control for EVs
- Real-time Embedded Systems
- Embedded Systems for IoT in EVs
- Advanced Communication Protocols (UART)
- Embedded Control Systems
- Motor Control in EVs
- Control System Integration for EVs
- Vehicle Electronics and Automation
- Embedded Systems Engineer
- Automotive Electronics Engineer
- Power Electronics Engineer
- Real-time Systems Engineer
- Embedded Systems Programmer
- Control Systems Engineer
- Motor Control Engineer
- ARM Cortex Programming
- Embedded C Programming for STM32
- Real-Time Embedded System Design
- Analog-to-Digital Conversion (ADC)
- PWM (Pulse Width Modulation) for Motor and Peripheral Control
- UART Communication Protocol
- STM32 HAL and Peripherals
- EV Embedded Systems Development
- Debugging and Simulation with Proteus and STM32CubeIDE
- Hardware Integration and Real-Time Data Acquisition
- Tata Motors
- Mahindra Electric
- Bosch India
- L&T Technology Services
- Hero Electric
- Continental Automotive India
- TVS Motor Company
- Exide Industries
- Ather Energy
- Ashok Leyland
Who can take this course?
This course is suitable for those who have basic understanding of microcontroller programming & prior knowledge of embedded systems.
- Freshers
- Professionals
Personalized Trainer Support Portal:
- 24/7 Access to a personalized trainer support portal.
- One-on-One Mentorship for queries and project guidance.
- Access to diverse resources, including recorded lectures, reading materials, and practical guides.
- Dedicated forums for content discussion, insights, and project collaboration.
- Regular Feedback from trainers for comprehensive understanding and improvement.
At a glance
- 9 Modules
- 58 Topics
- 19.2 Hours Video Content
- 1 Project Assignment
- Certficate of Complication
-
LevelExpert
-
Total Enrolled175
-
Duration19 hours 12 minutes
-
Enrollment validityEnrollment validity: Lifetime
-
CertificateCertificate of completion
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