AlgoGym is a self-developed algorithm training project designed to systematically enhance algorithm design and problem-solving skills. The project integrates a testing framework that supports rapid implementation, validation, and optimization of solutions to various algorithmic challenges.
- Structured Practice: Exercises organized by algorithm categories (strings, arrays, graph theory, dynamic programming, etc.)
- Immediate Feedback: Quick validation of solution correctness through the integrated testing framework
- Performance Analysis: Basic analysis of time and space complexity for implemented algorithms
- Progressive Learning: Difficulty gradient from fundamental to advanced problems
- Code Quality Assurance: Integration of code formatting and static analysis tools
- C++17/20 core language implementation
- GoogleTest testing framework
- CMake build system
- clang-format for code style consistency
- Git version control
- Project Structure
AlgoGym/
├── include/ # Public headers
├── src/ # Main source code
├── tests/ # Test cases
│ ├── twoPointers/ # Two pointers algorithm tests
│ │ └──isPalindrome # Problem name
│ │ ├──isPalindrome.md # Problem description
│ │ └──isPalindrome.cpp # Problem solution and tests
│ ├── dynamicProgramming/ # Dynamic programming tests
│ └── ...
├── tools/ # Helper scripts
├── .clang-format # Code formatting configuration
├── CMakeLists.txt # CMake configuration
└── README.md # Project documentation
- Adding a New Problem: Create a new test file in the appropriate category under tests/
- Implementing Solutions: Develop algorithm logic according to test requirements
- Running Tests:
mkdir -p build && cd build
cmake ..
make
./Yocto_AlgoGym list # List all the available tests
./Yocto_AlgoGym isPalindrome # Run teses of problem isPalindrome
- Optimizing Solutions: Improve algorithms based on test results and performance analysis
- Systematic mastery of classic algorithms and data structures
- Development of complex problem-solving mindset
- Enhancement of code design and implementation skills
- Preparation for technical interviews
- Building a personal knowledge base of algorithmic solutions
- Add automatic algorithm complexity analysis
- Integrate performance benchmarking
- Implement algorithm visualization components
- Expand into more advanced algorithm domains (e.g., basic machine learning algorithms)
- Develop automatic synchronization with LeetCode/HackerRank problem libraries
This project is not just a practice tool but also a record of my algorithmic growth. Through continuous accumulation and practice, it will become an important milestone in my personal technical capabilities.