🧪 Cookiecutter Scientific Research

A standardized, flexible template for scientific research projects

Project Overview • Features • Quick Start • Project Structure • Development Guide • Acknowledgements • License

📋 Project Overview

Cookiecutter Scientific Research is a project template generator designed for scientific research projects, aimed at providing a standardized structure and tool configuration to help researchers focus on scientific discovery rather than project setup. Through predefined best practices, this template supports high-quality scientific computing and data analysis workflows, ensuring the reproducibility and reliability of the research process.

✨ Features

• Dual Structure Modes - exploratory (lightweight, script-first for rapid iteration) and structured (layered package for production pipelines)

• Multi-Language Support - Choose python, julia, or both (hybrid with Arrow/Parquet interchange)

• Standardized Project Structure - Conforms to best practices for modern scientific computing projects

• Reproducible Experimental Environment - Built-in environment management and dependency locking mechanisms

• Integrated Documentation System - Preconfigured MkDocs documentation for showcasing research results

• Testing and Quality Control - Built-in testing frameworks and code quality tools

• Modern Package Management - uv for Python, Pkg for Julia, with separated make targets (lint-py/lint-jl, data-py/data-jl, etc.)

🚀 Quick Start

Prerequisites

• Python 3.9 or higher
• uv or pipx (recommended for tool installation)

Installation

This project is available on PyPI. As a cross-project tool, we recommend using uv or pipx for installation:

# Install using uv (recommended)
uv tool install cookiecutter-scientific-research

# Or install using pipx
pipx install cookiecutter-scientific-research

Creating a New Project

After installation, simply run the following command and follow the prompts:

ccsr

Initializing the Project Environment

After creating the project, navigate to the project directory and initialize the environment:

cd your-project-name

# Use uv to manage dependencies (recommended)
uv lock
uv sync

📂 Project Structure

The generated project follows the directory structure below, with each section having a clear responsibility:

├── LICENSE            <- Project license
├── Makefile           <- Makefile with common commands
├── README.md          <- Project documentation
├── pyproject.toml     <- Project configuration and dependency management
│
├── data               <- Data directory
│   ├── external       <- Third-party data
│   ├── interim        <- Intermediate processed data
│   ├── processed      <- Final analysis datasets
│   └── raw            <- Original data (read-only)
│
├── {{ cookiecutter.module_name }}  <- Project source code
│   ├── __init__.py    <- Package initialization file
│   ├── config.py      <- Configuration parameter management
│   ├── data           <- Data acquisition and loading
│   │   ├── __init__.py
│   │   └── dataset.py
│   ├── analyze        <- Data analysis module
│   │   ├── __init__.py
│   │   └── analysis.py
│   ├── features       <- Feature engineering
│   │   ├── __init__.py
│   │   └── features.py
│   ├── models         <- Model definitions
│   │   ├── __init__.py
│   │   └── model.py
│   ├── training       <- Model training and prediction
│   │   ├── __init__.py
│   │   ├── train.py
│   │   └── predict.py
│   ├── visualization  <- Data visualization
│   │   ├── __init__.py
│   │   └── plots.py
│   └── utils          <- Utility functions
│       ├── __init__.py
│       └── tools.py
│
├── notebooks          <- Jupyter/Marimo notebooks
│                         (Naming convention: number-creator-description)
│
├── docs               <- Project documentation (MkDocs)
│
├── references         <- Reference materials and literature
│
├── reports            <- Analysis reports and results
│   ├── figures        <- Generated charts
│   └── logs           <- Experiment logs
│
└── tests              <- Test directory

Two modes: structured keeps the full tree above; exploratory keeps only {{module}}/config.py + utils + flat scripts/ (Python) or src/config.jl+utils.jl+scripts/ (Julia). With project_language=julia you get Project.toml+src/ instead of pyproject.toml+{{module}}/; with both you get both trees and Arrow/Feather as interchange (data/interim/*.arrow). make targets are separated: lint/lint-py vs lint-jl, data/data-py vs data-jl, create_environment vs create_environment-jl, etc.

🔧 Development Guide

Package Management and Building

This project uses flit_core as the build backend, supporting modern Python package management. To build distribution packages:

# Install build dependencies
uv lock
# Install all optional dependencies
uv sync --all-extras
# Or install specific dependency groups
uv sync -e dev    # Development dependencies
uv sync -e test   # Testing dependencies
uv sync -e docs   # Documentation dependencies

# Build distribution packages
uv build

The built wheel files and source distribution packages will be saved in the dist/ directory.

Project Customization

During the template generation process, you can customize various aspects of the project according to prompts:

• Project style - exploratory (flat scripts/ + minimal config/utils) vs structured (full layered package)
• Programming language - python, julia, or both (hybrid with Project.toml + pyproject.toml)
• Project name and module name
• Author information
• License type
• Dependency management method
• Test framework selection
• Notebook and linting choices
• And more

structured preserves the original 7-module scaffold (data/analyze/features/models/training/visualization/utils), exploratory keeps only config.py + utils (+ scripts/) for fast iteration. For Julia, .jl scaffold mirrors the Python one under src/ and Project.toml is committed (like uv.lock) for reproducibility.

🙏 Acknowledgements

This project is modified from cookiecutter-data-science, special thanks to the DrivenData team for providing the excellent template and inspiration. The project has been customized for scientific research scenarios on the original basis, including tool chain optimization, workflow adjustments, and documentation structure optimization.

📄 License

This project is licensed under the MIT License - see the LICENSE file for details.