
Welcome to the course on master c and embedded c programming; contact the instructor with questions, provide feedback after watching videos, and enjoy a 30 day money back guarantee.
What are Embedded Systems and why do we use the language C?
Explore why computing devices and an embedded system need a programming language, moving from machine language to assembly, then to C, and how compiling translates C code into machine instructions.
Master c and embedded c programming by building a console project and observing that statements execute in the order they appear. Build and run to see the sequence drive output.
Explore the primary data types in C, including char, int, and void, and learn how signed and unsigned modifiers affect size and range, long variants, and format specifiers.
Explore decimal, binary, and hexadecimal number systems, learn base concepts, and master converting numbers between decimal and binary using division, remainders, and weighted powers of two.
Convert hexadecimal to decimal then to binary by applying powers of 16 and 2, using 0x, 0b, or h/b suffixes, with each hex digit corresponding to four binary places.
Explore common binary and hexadecimal values for decimal numbers, noting that hex digits 0–9 equal their decimal values and 10–15 are written as A–F.
Discover conditional execution in C by using decision control statements, with examples like temperature-based actions, and learn how if and switch statements enable programs to take decisions.
Evaluate a condition in the if statement and, when true, execute the enclosed statements; use braces to group statements and remember non-zero is true, zero is false in C.
Master relational operators in C, including ==, !=, >, <, >=, and <=, and learn how they yield 0 or 1 for false or true in conditional execution and loops.
Explore how if..else statements evaluate conditions and execute the corresponding if or else blocks. See temperature and number examples to illustrate true versus false paths, multiple ifs, and printf-related issues.
Learn how switch..case statements in c evaluate an expression and jump to the matching case, use break to exit, and handle default when no case matches.
Explore how the while loop in C works, using a test expression, body execution, and incrementing, with examples like i < 10 and potential infinite loops in embedded systems.
Explore nesting for loops in c, with an outer and inner loop using i and j indices, and printf statements showing how the body repeats until conditions fail.
The do..while loop executes the body first, then tests the expression, ensuring the body runs at least once, with braces and a semicolon.
The C programming language is the foundation of every embedded systems role in the world. If you want to write firmware, understand how microcontrollers work, or break into embedded systems — this is the one skill you cannot skip.
This course teaches C the way it is actually used in embedded development: hands-on, visual, and with real code written in front of you. Every section follows a simple pattern — theory first, then a working program that proves it. No filler, no fluff.
Who this course is for: Whether you are a fresh engineering graduate, a hobbyist who has outgrown Arduino, or a software developer pivoting into embedded systems — this course was built for you. No prior embedded experience required. A basic comfort with computers is enough to begin.
What you will learn:
How data is stored in memory — RAM, addresses, binary, and hex — the foundation everything else builds on
C fundamentals: data types, variables, control flow, functions, and loops with live coding throughout
Pointers and memory — the most important (and feared) topic in C, explained visually and step by step
Arrays and structures — how to model real-world hardware data in C
The Embedded C essentials: volatile, bitwise operators, bit manipulation, and preprocessor directives
The complete C compilation pipeline — from source code to machine code, including what a linker actually does
How the course works: Every section builds on the last. We start with what an embedded system is and end with the compilation process that turns your C file into the binary that runs on a chip. Along the way, every concept gets a working program. You will spend more time reading and writing code than reading slides.
Any C compiler or IDE works — the course shows a free setup, and every example runs on plain gcc as well.
Free companion articles for every section are linked inside each lecture's resources.
By the end of this course, you will:
Write clean, correct C programs from scratch
Understand how your code maps to memory and hardware
Read and use datasheets that reference registers, bit fields, and memory maps
Be fully prepared to move into a microcontroller-specific course with confidence
Updated based on learner feedback. Suitable for students and working professionals alike.