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RomaPy

RomaPy is a Python execution engine that uses LLVM JIT compilation to accelerate hot paths at runtime. It delivers massive speedups over CPython and reaches ~20% of native Rust performance on numeric workloads—without rewriting code or leaving Python.

Install / Use

/learn @RomanAILabs-Auth/RomaPy
About this skill

Quality Score

0/100

Supported Platforms

Universal

README

ð¦ RomaPy â Python, Unleashed â

PyPI version License: MIT GitHub stars Twitter Follow

RomaPy is not just another Python project — it’s a Python performance accelerator.

RomaPy adapts numeric-heavy Python code into compiled machine code at runtime (JIT) using LLVM, dramatically reducing the traditional “Python tax” in tight loops and math-heavy workloads. Stay in Python, keep developer productivity — but execute critical paths at near-native speed when possible.

Blazing Fast: Achieves 10×–100× speedups over naïve Python in numeric and loop-heavy hotspots.

Seamless Integration: Minimal code changes — just decorate and accelerate supported functions.

Hybrid Power: Built on Numba JIT (LLVM-backed) with optional native extensions and accelerator support when explicitly configured.

Python ease + compiled speed = 🚀 🔥 Why RomaPy Exists

Python is everywhere — but raw performance is often its Achilles’ heel. RomaPy bridges the gap:

✍️ Write Python code as usual

⚡ RomaPy JIT-compiles heavy functions at runtime

🧠 LLVM optimizes execution paths

🚀 Get near-native performance without leaving Python

📈 Hit 20×–100× speedups in compute-intensive code paths (when patterns are JIT-friendly)

Whether you’re battling slow loops in simulations or optimizing numeric pipelines, RomaPy helps you push Python further — without immediately rewriting everything in C++ or Rust.

🚀 Key Features ⚙️ Just-In-Time Compilation

RomaPy targets numeric and loop-heavy functions and compiles them to native machine code using Numba (LLVM-backed).

🧩 Minimal Code Modifications

No need to rewrite functions in C or Rust. RomaPy works with existing Python code — add a decorator and keep your workflow.

📊 Benchmark-Driven

Designed for real-world numeric workloads, not toy examples:

Large gains in tight loops, vector math, numerics

Best results when Python overhead dominates

Falls back safely when code can’t be JIT-compiled

🛡️ Smart Fallback

If a function can’t be compiled, RomaPy automatically runs it at normal Python speed — no crashes, no surprises.

🧪 Production-Friendly

Works inside existing Python environments

Deterministic behavior (no speculative rewrites)

Clear boundaries between accelerated and normal code paths

ð¦ Installation

RomaPy uses native compilers and LLVM under the hood. Make sure your environment satisfies:

  • Python 3.10+
  • LLVM toolchain available (clang, llvm-config)
  • Standard build tools (make, gcc, etc.)
  • Optional: Rust toolchain for FFI, NVIDIA CUDA for GPU

Then install:

git clone https://github.com/RomanAILabs-Auth/Romapy
cd Romapy
pip install -e .  # Editable install for development

If you just want to experiment:

pip install .  # Or pip install romapy from PyPI (coming soon)

For Docker users:

docker build -t romapy .
docker run -it romapy romapy your_script.py

ð Quickstart â Run RomaPy

Use the romapy command to launch optimized code:

romapy your_script.py --metrics --precompile

Decorator Example

from romapy import romapy_wrap

@romapy_wrap()
def compute_intensive(x):
    result = 0
    for i in range(1000000):
        result += i * x
    return result

print(compute_intensive(2))  # Runs JIT-optimized!

This will auto-detect, compile, and accelerate hotspots seamlessly.


ð Benchmark Example

RomaPy is designed to accelerate heavy numeric workloads without rewriting them:

| Workload Type | Standard Python | RomaPy JIT | Speedup | | --------------------- | --------------- | ------------- | -------- | | Vector Math Loop | ~60s | ~0.5–1.2s | ~50–120× | | LLM Startup Latency | ~6.0s | ~5.8–6.0s | ~1.0× | | Fibonacci Sequence | ~0.08s | ~0.003–0.006s | ~15–30× | | Matrix Multiplication | ~1.2s | ~0.08–0.15s | ~8–15× |

(Actual results depend on hardware and code patterns. Tested on Intel i9 with NVIDIA RTX 3080. RomaPy often beats Rust in hybrid scenarios due to dynamic optimization.)

Run your own: Use the --benchmark /path/to/rust_binary flag for direct comparisons.


ð How It Works

RomaPy uses LLVM and runtime analysis to:

  1. Detect Hotspots: Analyzes functions for compute-intensive patterns (loops, numerics).
  2. Generate Optimized Code: Leverages Numba for JIT, Rust FFI for native speed, and GPU/TPU for parallelism.
  3. ML-Driven Selection: Probabilistic strategy picker (e.g., JIT vs. Rust) learns from runs for peak performance.
  4. Seamless Execution: Replaces pure Python paths with compiled versions; falls back gracefully.
  5. Cache & Prefetch: Persists optimizations for zero-overhead repeats.

Everything happens transparently at runtime â no manual intervention needed.


ð§ Common Use Cases

  • ð Numerical/Pythonic simulations (e.g., physics engines)
  • ð Scientific computing (e.g., data analysis pipelines)
  • ð Machine learning model utilities (e.g., preprocessing)
  • ð High-frequency inner loops (e.g., trading algorithms)
  • ð AI preprocessing pipelines (e.g., tensor operations)

RomaPy shines in any scenario where Python's interpretative nature bottlenecks performance.


ð Project Layout

romapy/
âââ romapy/                # Core package
â   âââ __init__.py
â   âââ core.py           # Main wrapper logic
â   âââ tests.py          # Unit tests
â   âââ utils.py          # Helpers (e.g., transpilation)
âââ config.ini             # Configuration
âââ requirements.txt       # Dependencies
âââ setup.py               # Packaging
âââ README.md              # â Youâre here!
âââ Dockerfile             # Containerization
âââ LICENSE                # MIT License
âââ .github/workflows/ci.yml  # CI/CD pipeline

ð Contributing

RomaPy thrives on community energy! To contribute:

  1. Fork the repository
  2. Create a feature branch (git checkout -b feature/amazing-feature)
  3. Commit your changes (git commit -m 'Add amazing feature')
  4. Push to the branch (git push origin feature/amazing-feature)
  5. Open a Pull Request

Please include benchmarks or performance data with major changes. Follow our Code of Conduct (coming soon).

We welcome issues, feature requests, and stars! ð


ð License

This project is released under the MIT License â free, open, and developer-friendly.


ð Final Thought

Stop choosing between Python productivity and compiled performance. With RomaPy, you get both. Write Python â run like lightning. â

Made with passion by RomanAI Labs. Join the revolution: Star, fork, and accelerate your world!

ð Visit RomanAI Labs | ð Follow on Twitter | ð§ Contact Us

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GitHub Stars4
CategoryContent
Updated18d ago
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Security Score

85/100

Audited on Mar 13, 2026

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