High-Performance Data Engineering: Integrating Python and Rust
This course teaches advanced data engineers how to build hybrid systems that combine Python’s flexibility with Rust’s speed and memory safety for high-performance data processing.
Course Overview
Modern data engineering demands both rapid development cycles and extreme performance. Python excels at rapid prototyping and has a rich ecosystem of data science libraries. Rust provides memory safety without garbage collection, zero-cost abstractions, and performance comparable to C++.
By combining these languages, you can build data pipelines that are:
- Fast: Leverage Rust’s zero-cost abstractions and SIMD optimizations
- Safe: Memory safety guaranteed at compile time, no null pointer exceptions
- Flexible: Python’s expressive syntax for orchestration and analysis
- Scalable: Handle billions of rows with columnar storage and parallel processing
Syllabus
| Chapter | Title | Description |
|---|---|---|
| Chapter 1 | The Case for Rust in Data Engineering | Why Python alone isn’t enough and how Rust fills the gap |
| Chapter 2 | Columnar Storage from Scratch in Rust | Building a type-safe columnar data engine with parallel compute kernels |
| Chapter 3 | Bridging Rust and Python with ctypes | FFI bindings, memory ownership, and designing Pythonic wrappers |
| Chapter 4 | Apache Arrow: Zero-Copy Interoperability | Using Arrow IPC to transfer data between Rust and Python without copying |
| Chapter 5 | Parallelism Without the GIL | Rayon data-parallel operations that bypass Python’s Global Interpreter Lock |
| Chapter 6 | Async I/O with Tokio | Concurrent data ingestion from multiple sources using Tokio |
| Chapter 7 | Building the ETL Pipeline | Practical examples of extraction, transformation, loading, and benchmarks |
| Chapter 8 | Testing and Reliability | Unit, integration, and property-based testing for hybrid Rust+Python systems |
| Chapter 9 | Profiling and Optimization | Flamegraphs, SIMD tuning, and memory profiling |
| Chapter 10 | Interactive Data Engineering | Jupyter notebooks for exploratory data analysis with the hybrid engine |
Prerequisites
- Intermediate Python programming
- Basic understanding of systems programming concepts
- Familiarity with data engineering concepts (ETL, dataframes, schemas)
What You’ll Build
By the end of this course, you will have:
- A working Rust library with C-compatible FFI exports
- A Python package that loads and uses the Rust library via
ctypes - A complete ETL pipeline demonstrating the hybrid architecture
- Interactive Jupyter notebooks for data exploration
About the Author
This course was written by Alberto Cardenas, a data engineer and systems architect specializing in high-performance data infrastructure. Alberto bridges the gap between Python’s expressive ecosystem and Rust’s systems-level performance.
- Website: betoalien.com
- Contact: iam@albertocardenas.com
License
This course material is provided for educational purposes.
Table of contents
- Chapter 1 - The Case for Rust in Data Engineering
- Chapter 2 - Columnar Storage from Scratch in Rust
- Chapter 3 - Bridging Rust and Python with ctypes
- Chapter 4 - Apache Arrow: Zero-Copy Interoperability
- Chapter 5 - Parallelism Without the GIL
- Chapter 6 - Async I/O with Tokio
- Chapter 7 - Building the ETL Pipeline
- Chapter 8 - Testing and Reliability
- Chapter 9 - Profiling and Optimization
- Chapter 10 - Interactive Data Engineering