C & C++ - Beginner to Advanced
Master native programming with a practical, project-driven path covering C fundamentals, modern C++ (11 to 20), systems programming, concurrency, and performance tuning.
C, memory, and the machine
C is where you learn how software really meets hardware, and this program starts there: the history and ecosystem, compilers, and then the heart of C, memory, pointers, arrays, strings, and structs. You learn build systems with Makefiles and CMake, and the linking and ABI considerations that trip up developers who never learned them, so you understand not just the language but how programs are actually assembled.
This grounding pays off everywhere. Understanding memory and pointers explicitly, rather than having them hidden by a managed language, gives you a mental model of computation that makes every other language clearer. It is demanding, but it is the foundation the rest of the program builds on.
That explicit control is the whole reason these languages exist and endure: in the domains where performance and predictability matter, finance, gaming, embedded, systems, there is no substitute, and this program builds the understanding those domains require.
Modern C++
C++ has evolved dramatically, and this program teaches the modern language rather than its historical baggage. You learn RAII and resource management, smart pointers and ownership, the STL's containers and algorithms, and templates and generic programming, up through concepts and the features of C++ 11 to 20. The emphasis is on writing C++ that is safe and expressive, not the error-prone C++ of the past.
Modern C++ is a large language, and the program's project-driven approach keeps it grounded. Rather than surveying features in the abstract, you apply RAII, smart pointers, and the STL to real components, which is how the idioms actually stick and how you learn to write C++ that other engineers trust.
Modern C++ deserves its reputation for difficulty only when taught as a pile of features; taught around RAII and ownership, as here, it becomes a coherent and even elegant language, which is what makes the program's project-driven approach effective.
Systems programming and performance
The program's systems track covers what native languages are chosen for: processes and threads, sockets and network programming, epoll and event-driven I/O, and the filesystem and system calls. Sanitizers, Valgrind, and undefined-behavior detection are taught as essential tools, because in C++ the compiler will not always save you.
Performance is the finale. You learn concurrency and the C++ memory model, profiling and benchmarking, cache-awareness and data layout, and SIMD and vectorization, then apply them in a performance-tuning capstone with measured results. This is the skill set that makes C++ engineers valuable in finance, gaming, embedded, and any domain where speed is the point.
The performance work is where C++ engineers earn their keep, and the program treats it rigorously: you measure, you reason about hardware, and you tune with evidence, which is the discipline that separates real performance engineering from guesswork.
See the method, not just the topic
A representative worked example from the program, so you can see the level of concreteness the curriculum works at.
#include <memory>
#include <fstream>
// RAII: the resource's lifetime is tied to an object's scope.
// No manual free, no leak, even if an exception is thrown.
void write_report(const std::string& path) {
std::ofstream out(path); // opened here
auto buffer = std::make_unique<char[]>(4096); // owned, freed automatically
out << "report header\n";
// ... use buffer ...
} // out is closed and buffer is freed here, automatically,
// in reverse order of construction. This deterministic
// cleanup is why modern C++ rarely needs manual delete.The full syllabus
Four modules of five chapters each, sequenced so the material builds cumulatively. Each chapter carries a note on what it teaches.
Module 1C foundations
- 01History, ecosystem, and compilersThe history, ecosystem, and compilers of C. Knowing the ecosystem orients everything that follows.
- 02Memory, pointers, and arraysMemory, pointers, and arrays. Explicit memory is the mental model behind all languages.
- 03Strings, structs, and the type systemStrings, structs, and the type system. These are the building blocks of every C program.
- 04Build systems: Makefiles and CMakeBuilding with Makefiles and CMake. Build systems are how real native projects assemble.
- 05Linking and ABI considerationsLinking and ABI considerations. Linking and ABI trip up those who never learned them.
Module 2Modern C++
- 06RAII and resource managementRAII and automatic resource management. RAII is the single most important modern-C++ idea.
- 07Smart pointers and ownershipSmart pointers and clear ownership. Smart pointers make ownership clear and leaks rare.
- 08The STL: containers and algorithmsThe STL's containers and algorithms. The STL is a toolbox you reach for constantly.
- 09Templates and generic programmingTemplates and generic programming. Templates enable powerful, reusable, generic code.
- 10Concepts and modern C++ (11 to 20)Concepts and modern C++ from 11 to 20. Modern C++ is safer and clearer than its reputation.
Module 3Systems programming
- 11Processes and threadsProcesses and threads. Processes and threads are the units of systems work.
- 12Sockets and network programmingSockets and network programming. Sockets are how programs talk across a network.
- 13epoll and event-driven I/Oepoll and event-driven I/O. epoll is how servers handle many connections at once.
- 14The filesystem and system callsThe filesystem and system calls. System calls are the boundary with the operating system.
- 15Sanitizers, Valgrind, and undefined behaviorCatching bugs with sanitizers and Valgrind. In C++ the tools catch what the compiler will not.
Module 4Performance and concurrency
- 16Concurrency and the C++ memory modelConcurrency and the C++ memory model. The memory model is essential for correct concurrency.
- 17Profiling and benchmarkingProfiling and benchmarking native code. You measure before you optimize.
- 18Cache-awareness and data layoutCache-awareness and data layout. Data layout often matters more than clever code.
- 19SIMD and vectorizationSIMD and vectorization. SIMD extracts performance from the hardware.
- 20The performance-tuning capstoneTuning a component with measured results. The capstone shows a real, measured speedup.
How the program is taught
The program is project-driven, which is essential for C and C++: you learn by building real components, not by surveying features in the abstract. Each idea, RAII, smart pointers, the STL, is applied immediately, because that is how the idioms of modern C++ actually take hold.
It teaches modern C++ deliberately, around ownership and RAII rather than the error-prone patterns of the past, so you learn to write C++ that is safe and clear. The systems and performance work is grounded in measurement, so you reason with evidence rather than folklore.
Prerequisites and pace
Some prior programming experience is helpful, since C and C++ are demanding first languages, and the data-structures program pairs especially well with this one. The program builds C from its fundamentals, so it does not assume prior systems knowledge.
The pace is deliberately steady through the memory and pointer material, because that grounding underpins everything after it, then builds through modern C++, systems programming, and performance to a tuning capstone with measured results.
What makes this program different
Many C++ courses teach either dated C++ or a feature checklist. This one teaches modern C++ (11 to 20) organized around the ideas that make it coherent, and pairs it with real systems programming and rigorous performance work, which is what the domains that choose C++ actually require.
The performance focus is the signature. Profiling, cache-awareness, data layout, and SIMD, applied in a capstone with measured improvement, are the skills that make C++ engineers valuable, and few programs teach them with this rigor.
What you will be able to do
- Program in C with a real grasp of memory and pointers
- Write modern, safe C++ with RAII and the STL
- Build systems software with threads, sockets, and I/O
- Detect undefined behavior with sanitizers and Valgrind
- Profile and tune native code for performance
Who should take it
- Developers targeting systems and performance roles
- Engineers in embedded, finance, or gaming
- Students learning how the machine really works
- Anyone who wants deep control over memory and performance
Common questions
People often ask whether C++ is still relevant, and in the domains that depend on it, finance, gaming, embedded, systems, it is irreplaceable, and skilled C++ engineers remain in high demand and short supply.
Another question is whether to learn C first. The program covers C fundamentals precisely because the explicit memory model they teach makes modern C++ and every other language clearer, so the C grounding is treated as valuable rather than optional.
Where it leads
The program opens systems, performance, embedded, and quantitative-development roles, which are among the most technically demanding and well-compensated in the field. The performance capstone is concrete evidence of the capability these roles require.
Beyond specific roles, the deep understanding of memory and performance transfers everywhere, making you a stronger engineer in any language, which is part of why C and C++ remain valued even by developers who work primarily elsewhere.
How it fits the journey
C and C++ complete the core-languages stage, offering the deepest, closest-to-the-machine path of the three anchor languages. They suit those drawn to performance and systems work.
The program pairs naturally with the data-structures-and-algorithms foundation, where the performance thinking taught here, complexity, cache behavior, data layout, becomes concrete and measurable in a way managed languages obscure.
What you build and keep
Build a performance-critical systems component in modern C++: design it with RAII and the STL, make it concurrent and safe under sanitizers, then profile, benchmark, and tune it, cache-awareness, data layout, and SIMD, documenting the measured improvement.
Format: Self-paced and project-driven, from C fundamentals to a performance capstone.
Run this program for your team
Every program can be delivered as a private, tailored cohort for your organization, aligned to your systems, policies, and career frameworks.
Scope a corporate cohortFrequently asked questions
What is the C & C++ - Beginner to Advanced program?
Master native programming with a practical, project-driven path covering C fundamentals, modern C++ (11 to 20), systems programming, concurrency, and performance tuning.
Who is this program for?
It suits developers targeting systems and performance roles, along with others described on this page.
How is it delivered?
Self-paced and project-driven, from C fundamentals to a performance capstone.
Is there a project or capstone?
Build a performance-critical systems component in modern C++: design it with RAII and the STL, make it concurrent and safe under sanitizers, then profile, benchmark, and tune it, cache-awareness, data layout, and SIMD, documenting the measured improvement.
How does this fit the wider journey?
C and C++ complete the core-languages stage. They pair naturally with the Data Structures & Algorithms foundation, where the performance thinking taught here becomes concrete.
Can my organization run this as a private cohort?
Yes. Every program can be delivered as a tailored corporate cohort. Contact us to scope it.