NVIDIA Ising

AI model · Science / biology model by Nvidia

NVIDIA Ising is a family of open AI models that accelerate quantum computing by improving processor calibration and error correction. These models offer significant speed and accuracy improvements over traditional methods, empowering researchers and enterprises to build scalable quantum systems.

Modalities
Image, Text → Text
Released
2026-04-14
Release Date
April 14, 2026
License
NVIDIA Open Model License, Apache 2.0
Primary Use Case
Quantum Computing (Calibration & Error Correction)
Performance Improvement (Decoding)
Up to 2.5x faster, 3x more accurate than pyMatching

Overview

NVIDIA Ising is a family of open-source AI models designed to accelerate the development of practical quantum computers. It addresses critical challenges in quantum computing, specifically quantum processor calibration and quantum error correction. By providing state-of-the-art AI tools, Ising empowers researchers and enterprises to build scalable, high-performance quantum systems. The models automate complex tasks, significantly reducing the time and increasing the accuracy compared to traditional methods, making quantum computing more accessible and reliable.

Quantum Computing Tasks

Use cases

Specifications

Modalities
Image, Text → Text
Parameters
35B (Ising-Calibration-1-35B-A3B), 31B (Ising-Calibration-1.5-31B-BF16), 1.8M (Ising-Decoder-SurfaceCode-1-Accurate), 0.91M (Ising-Decoder-SurfaceCode-1-Fast), 2.94M (Ising-Decoder-ColorCode-1-Fast)
Licence
NVIDIA Open Model License, Apache License 2.0 (for Qwen3.5-35B-A3B base model)
Released
2026-04-14
Release Date
April 14, 2026
Model Variants
Ising-Calibration-1-35B-A3B, Ising-Calibration-1.5-31B-BF16, Ising-Calibration-1.5-31B-NVFP4, Ising-Decoder-SurfaceCode-1-Accurate, Ising-Decoder-SurfaceCode-1-Fast, Ising-Decoder-ColorCode-1-Fast
License
NVIDIA Open Model License, Apache 2.0
Primary Use Case
Quantum Computing (Calibration & Error Correction)
Performance Improvement (Decoding)
Up to 2.5x faster, 3x more accurate than pyMatching
Calibration Automation
Reduces bring-up time from days to hours

How it works

  1. Access Models & APIs: Access pre-trained models and tooling on Hugging Face or via NVIDIA NIM API endpoints.
  2. Integrate into Workflows: Integrate Ising models into quantum computing workflows using provided frameworks and guidelines.
  3. Customize and Deploy: Retrain, fine-tune, and deploy models using PyTorch and CUDA-Q for specific quantum computing tasks.

FAQ

What is NVIDIA Ising?

NVIDIA Ising is a family of open-source AI models designed to accelerate the development of practical quantum computers. It addresses critical challenges in quantum computing, specifically quantum processor calibration and quantum error correction. By providing state-of-the-art AI tools, Ising empowers researchers and enterprises to build scalable, high-performance quantum systems.

How can I access and use NVIDIA Ising models?

NVIDIA Ising models are available on Hugging Face and can be accessed via NVIDIA NIM API endpoints. They can also be downloaded and deployed using frameworks like PyTorch and CUDA-Q.

What are the primary use cases for NVIDIA Ising?

NVIDIA Ising models are designed for quantum computing tasks such as automating quantum processor calibration and performing real-time decoding for quantum error correction.

What are the performance benefits of using NVIDIA Ising?

NVIDIA Ising offers significant performance improvements, with decoding processes up to 2.5x faster and 3x more accurate than traditional methods like pyMatching. Calibration automation can reduce bring-up time from days to hours.

Does NVIDIA Ising support different noise models?

Yes, NVIDIA Ising supports various noise models for quantum error correction and includes a new training framework to support any noise model through PyTorch and CUDA-Q.

What are the different model variants and their parameter counts?

The Ising model family includes variants like Ising-Calibration-1-35B-A3B (35B parameters), Ising-Calibration-1.5-31B-BF16 (31B parameters), and various decoder models with parameter counts ranging from ~0.91M to 2.94M.