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Modern C++ Systems & Performance Engineering Bootcamp Certificate

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Bootcamp Mastery Certificate B25

Primary spine: freeCodeCamp / Daniel Gakwaya's 31-hour C++20 course, reinforced with CppCon expert sessions on concepts, ownership, move semantics, modern CMake and concurrency. Move from language fundamentals into resource-safe, testable, performance-aware systems engineering.

Benchmark: freeCodeCamp publishes Daniel Gakwaya's C++ course publicly, and CppCon publishes the referenced expert sessions publicly. Zuyini curates those videos into an independent build-and-proof credential; completion does not represent a freeCodeCamp or CppCon certification or endorsement.

Core Video Sequence

01 — Complete C++20 beginner-to-advanced course

02 — Pointers, memory map + dynamic allocation

03 — Functions, references + compilation model

04 — Templates + generic programming

05 — Modern C++20 concepts + constraints

06 — Classes, inheritance + polymorphism

07 — RAII ownership + smart pointers

08 — Rvalues, move semantics + resource transfer

09 — Modern build systems with CMake

10 — Concurrency, data races + atomics

Build-Along Checkpoints

  • Checkpoint 1: Build a multi-file C++20 command-line or service project with clear interfaces, value semantics and compiler warnings enabled; document the build and dependency boundaries.
  • Checkpoint 2: Model ownership explicitly: replace unnecessary raw owning pointers with RAII and smart pointers; demonstrate lifetime behavior and eliminate a deliberately introduced leak.
  • Checkpoint 3: Use templates and at least one C++20 concept to constrain generic code; compare compile-time type safety against an unconstrained version and document failure diagnostics.
  • Checkpoint 4: Implement a resource-owning type with rule-of-zero where possible; where transfer matters, demonstrate correct copy/move behavior and benchmark avoidable copies.
  • Checkpoint 5: Create a modern CMake build with library/executable targets, debug/release configurations and repeatable commands; add automated checks or tests for critical behavior.
  • Checkpoint 6: Add concurrency with std::thread or equivalent standard constructs; identify shared state, prevent a data race with mutex/atomic design, then measure throughput and contention.

7-Day Independent Capstone

  • Day 1: Define a performance-sensitive problem, workload, constraints and acceptance tests; sketch modules, ownership boundaries, data structures and expected
  • Day 2: Implement the baseline C++20 application with value semantics, references and clean interfaces; capture compiler warnings, baseline timing and memory
  • Day 3: Add templates/concepts and refactor ownership with RAII/smart pointers; run sanitizer or equivalent checks and document one lifetime bug found and fixed.
  • Day 4: Introduce move-aware resource transfer and benchmark copies/allocations before and after; justify where move semantics helps and where it adds no
  • Day 5: Create the modern CMake build plus repeatable tests/checks; run debug and optimized builds and record any behavior/performance differences.
  • Day 6: Add a concurrent path, reproduce one synchronization defect or contention issue, then fix it with a correct mutex/atomic design and rerun benchmarks.
  • Day 7: Publish repo, architecture/ownership map, CMake instructions, test evidence, memory-safety evidence, benchmark report, concurrency analysis and demo

C++ Systems - Own Memory, Build & Optimize

Ship a production-style C++20 system rather than isolated syntax exercises. Completion must prove explicit ownership, generic/type design, copy/move judgment, repeatable builds, quality checks, correct concurrency and measured performance under a realistic workload.

Proof Rubric — What Must Be Shown

  • LANGUAGE: Modern C++20 + clear type discipline
  • OWNERSHIP: RAII, lifetimes + leak-free evidence
  • GENERICS: Templates/concepts + compile-time constraints
  • MOVE: Copy/move behavior + measured rationale
  • BUILD: Modern CMake + reproducible builds
  • QUALITY: Warnings/tests + memory checks
  • CONCURRENCY: Race-free synchronization + stress test
  • PERFORMANCE: Benchmarks, tradeoffs + profiling evidence