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NVIDIA AI Releases Nemotron Nano 2 AI Models: A Production-Ready Enterprise AI Model Family and 6x Faster than Similar Sized Model

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Understanding the Target Audience for NVIDIA AI’s Nemotron Nano 2 Release

The target audience for NVIDIA’s Nemotron Nano 2 AI models includes AI researchers, data scientists, business executives, and IT decision-makers in enterprise settings. These professionals are keenly interested in leveraging advanced AI technologies to enhance operational efficiency and drive innovation within their organizations.

Pain Points

  • Need for faster and more efficient AI models to handle complex tasks.
  • Difficulty in finding transparent AI solutions that allow for reproducibility and customization.
  • Challenges in deploying AI models on cost-effective hardware without sacrificing performance.

Goals

  • To implement AI solutions that improve decision-making and operational workflows.
  • To access high-performing models capable of reasoning, coding, and multilingual tasks.
  • To stay ahead of competitors by adopting the latest technologies in AI.

Interests

  • Advancements in AI model architecture and performance metrics.
  • Open-source data and methodologies for training and fine-tuning AI models.
  • Real-world applications of AI in various business contexts.

Communication Preferences

  • Prefer detailed technical documentation and case studies.
  • Engage with content that includes benchmarking results and performance comparisons.
  • Value transparency in data usage and model training processes.

NVIDIA AI Releases Nemotron Nano 2 AI Models

NVIDIA has unveiled the Nemotron Nano 2 family, introducing a line of hybrid Mamba-Transformer large language models (LLMs) that deliver up to 6× higher inference throughput than models of similar size. This release is notable for its transparency in data and methodology, as NVIDIA provides most of the training corpus and recipes alongside model checkpoints for the community. These models maintain a massive 128K-token context capability on a single midrange GPU, significantly lowering barriers for long-context reasoning and real-world deployment.

Key Highlights

  • 6× throughput vs. similarly sized models: Nemotron Nano 2 models deliver up to 6.3× the token generation speed of models like Qwen3-8B in reasoning-heavy scenarios—without sacrificing accuracy.
  • Superior accuracy for reasoning, coding & multilingual tasks: Benchmarks show on-par or better results vs. competitive open models, notably exceeding peers in math, code, tool use, and long-context tasks.
  • 128K context length on a single GPU: Efficient pruning and hybrid architecture make it possible to run 128,000 token inference on a single NVIDIA A10G GPU (22 GiB).
  • Open data & weights: Most of the pretraining and post-training datasets, including code, math, multilingual, synthetic SFT, and reasoning data, are released with permissive licensing on Hugging Face.

Hybrid Architecture: Mamba Meets Transformer

The Nemotron Nano 2 is built on a hybrid Mamba-Transformer backbone, inspired by the Nemotron-H Architecture. Most traditional self-attention layers are replaced by efficient Mamba-2 layers, with only about 8% of the total layers using self-attention. This architecture is designed for:

Model Details

  • 9B-parameter model with 56 layers (out of a pre-trained 62).
  • Hidden size of 4480, with grouped-query attention and Mamba-2 state space layers facilitating scalability and long sequence retention.

Mamba-2 Innovations

These state-space layers, popularized as high-throughput sequence models, are interleaved with sparse self-attention to preserve long-range dependencies and large feed-forward networks. This structure enables high throughput on reasoning tasks requiring “thinking traces”—long generations based on long, in-context input—where traditional transformer-based architectures often slow down or run out of memory.

Training Recipe: Massive Data Diversity, Open Sourcing

The Nemotron Nano 2 models are trained and distilled from a 12B parameter teacher model using an extensive, high-quality corpus. NVIDIA’s data transparency is a significant highlight:

  • 20T tokens pretraining: Data sources include curated and synthetic corpora for web, math, code, multilingual, academic, and STEM domains.
  • Major Datasets Released:
    • Nemotron-CC-v2: Multilingual web crawl (15 languages), synthetic Q&A rephrasing, deduplication.
    • Nemotron-CC-Math: 133B tokens of math content, standardized to LaTeX, over 52B “highest quality” subset.
    • Nemotron-Pretraining-Code: Curated and quality-filtered GitHub source code; rigorous decontamination and deduplication.
    • Nemotron-Pretraining-SFT: Synthetic, instruction-following datasets across STEM, reasoning, and general domains.

Alignment, Distillation, and Compression

NVIDIA’s model compression process is built on the “Minitron” and Mamba pruning frameworks:

  • Knowledge distillation from the 12B teacher reduces the model to 9B parameters, with careful pruning of layers, FFN dimensions, and embedding width.
  • Multi-stage SFT and RL: Includes tool-calling optimization (BFCL v3), instruction-following (IFEval), DPO and GRPO reinforcement, and “thinking budget” control.
  • Memory-targeted NAS: The pruned models are specifically engineered so that the model and key-value cache fit within the A10G GPU memory at a 128K context length.

Benchmarking: Superior Reasoning and Multilingual Capabilities

In head-to-head evaluations, Nemotron Nano 2 models excel:

Task/Bench Nemotron-Nano-9B-v2 Qwen3-8B Gemma3-12B
MMLU (General) 74.5 76.4 73.6
MMLU-Pro (5-shot) 59.4 56.3 45.1
GSM8K CoT (Math) 91.4 84.0 74.5
MATH 80.5 55.4 42.4
HumanEval+ 58.5 57.6 36.7
RULER-128K (Long Context) 82.2 80.7
Global-MMLU-Lite (Avg Multi) 69.9 72.8 71.9
MGSM Multilingual Math (Avg) 84.8 64.5 57.1

Throughput (tokens/s/GPU) at 8K input/16K output:

  • Nemotron-Nano-9B-v2: up to 6.3× Qwen3-8B in reasoning traces.
  • Maintains up to 128K-context with batch size=1—previously impractical on midrange GPUs.

Conclusion

NVIDIA’s Nemotron Nano 2 release is a pivotal moment for open LLM research, redefining possibilities on a single cost-effective GPU—both in speed and context capacity—while raising the bar for data transparency and reproducibility. Its hybrid architecture, throughput supremacy, and high-quality open datasets are set to accelerate innovation across the AI ecosystem.

Check out the Technical Details, Paper and Models on Hugging Face. Feel free to check out our GitHub Page for Tutorials, Codes and Notebooks. Also, follow us on Twitter and join our 100k+ ML SubReddit and Subscribe to our Newsletter.

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