This repository is a mathematical and computational exploration of selected Project Euler problems, designed to bridge rigorous mathematical reasoning with computational implementation.
"Mathematics is the art of giving the same name to different things." โ Henri Poincarรฉ
The purpose of this project is not only to find numerical answers, but to understand the structure, proofs, and asymptotic behaviors that lie beneath each problem.
Each solution is built upon a dual foundation:
- Formal Mathematical Analysis (LaTeX) โ proofs, lemmas, propositions, and theorems;
- Computational Realization (Python / Jupyter) โ verified algorithms and empirical validation.
PROJECT-EULER/
โโโ .vscode/ # Environment configuration
โโโ .github/workflows/ # LaTeX CI/CD pipeline (GitHub Actions)
โโโ data/ # Optional datasets
โโโ docs/ # Mathematical write-ups in LaTeX
โโโ notebooks/ # Jupyter notebooks for exploration
โโโ src/python/ # Core algorithmic implementations
โโโ tests/ # Future mathematical/algorithmic validations
โโโ pyproject.toml # Dependency and environment control
โโโ .gitignore
Each notebook and LaTeX document focuses on:
- The underlying recurrence relations or combinatorial structures of the problem;
- The proof of correctness for derived formulas or algorithms;
- The asymptotic growth and analytical behavior of resulting sequences;
- The relationship between discrete and continuous models (e.g., sums vs. integrals, discrete recursions vs. differential analogs).
Languages & Tools
- ๐ Python 3.12 (with
uv,numpy,sympy,jupyter) - ๐ VS Code (extensions: Python, Jupyter, LaTeX Workshop)
- ๐ LaTeX (MiKTeX + SumatraPDF)
- โ๏ธ GitHub Actions (for automated LaTeX builds)
This repository treats computational mathematics as an experimental science:
- Hypothesis generation from numerical patterns;
- Proof verification through symbolic reasoning;
- Construction of efficient algorithms inspired by theorems;
- Asymptotic and structural analysis of recursive systems.
It aims to evolve into a library of mathematical mini-papers, each combining theoretical rigor with reproducible computational evidence.
To create a Mathematical Atlas of Project Euler problems โ each entry containing:
- A theorem-driven formulation;
- Analytical and computational solutions;
- Cross-references to known results in number theory and combinatorics.
Released under the MIT License. Free for academic and educational use with proper attribution.