Qwen2.5-14B-Instruct-AWQ

Qwen2.5‑14B‑Instruct‑AWQ is a 14‑billion‑parameter, instruction‑tuned large language model (LLM) released by the Qwen team. It builds on the Qwen2.5 series, which expands the original Qwen2 family with richer knowledge, stronger coding and mathematics abilities, and a dramatically extended context window. The model is a causal transformer that has been quantized to 4‑bit using the

Qwen 818K downloads apache-2.0 Text Generation
Frameworkstransformerssafetensors
Languagesen
Tagsqwen2text-generationchatconversationalbase_model:Qwen/Qwen2.5-14B-Instructbase_model:quantized:Qwen/Qwen2.5-14B-Instruct4-bitawq
Downloads
818K
License
apache-2.0
Pipeline
Text Generation
Author
Qwen

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Technical Overview

Qwen2.5‑14B‑Instruct‑AWQ is a 14‑billion‑parameter, instruction‑tuned large language model (LLM) released by the Qwen team. It builds on the Qwen2.5 series, which expands the original Qwen2 family with richer knowledge, stronger coding and mathematics abilities, and a dramatically extended context window. The model is a causal transformer that has been quantized to 4‑bit using the AWQ scheme, allowing it to run on a single high‑end GPU while retaining most of the quality of the full‑precision checkpoint.

Key features and capabilities include:

  • Instruction following and chat‑style interaction with a built‑in apply_chat_template workflow.
  • Long‑context support up to 128 K tokens (YaRN extrapolation) and generation of up to 8 K tokens.
  • Multilingual competence in >29 languages (English, Chinese, French, Spanish, Portuguese, German, Italian, Russian, Japanese, Korean, Vietnamese, Thai, Arabic, …).
  • Specialized expertise in coding, mathematics, and structured data (tables, JSON).
  • 4‑bit AWQ quantization for reduced VRAM footprint without a major loss in accuracy.

Architecture highlights:

  • 48 transformer layers with Grouped‑Query Attention (GQA): 40 Q‑heads and 8 KV‑heads.
  • Rotary Positional Embedding (RoPE) with optional YaRN scaling for length extrapolation.
  • SwiGLU activation, RMSNorm, and bias‑enabled QKV projections for stable training.
  • Non‑embedding parameters: ~13.1 B; total parameters: ~14.7 B.

Intended use cases span conversational assistants, code generation, data‑analysis bots, and any application that benefits from long‑form, multilingual, instruction‑driven text generation. Because the model is instruction‑tuned, it excels at following system prompts, role‑play, and producing structured outputs such as JSON, making it a solid foundation for custom chat‑bots, API back‑ends, and research prototypes.

Benchmark Performance

Benchmarks that matter for instruction‑tuned LLMs include zero‑shot reasoning (MMLU, GSM‑8K), code generation (HumanEval), and long‑context tasks (LongBench). The Qwen2.5‑14B‑Instruct‑AWQ model inherits the performance of its full‑precision counterpart, which has been shown to surpass many 13‑14 B models on these suites. According to the Qwen2.5 blog, the 14 B model scores:

  • ~62 % on MMLU (average across 57 subjects).
  • ~55 % on GSM‑8K (math reasoning).
  • ~46 % on HumanEval (code generation).
The AWQ‑quantized version retains within 2‑3 % of these numbers while cutting VRAM usage by ~70 %. These metrics matter because they reflect real‑world abilities: knowledge recall, mathematical problem solving, and programming assistance. Compared with other 14 B models (e.g., LLaMA‑2‑13B, Mistral‑7B‑Instruct), Qwen2.5‑14B‑Instruct‑AWQ offers superior multilingual performance and a longer context window, positioning it as a competitive choice for developers needing both breadth and depth.

Hardware Requirements

VRAM for inference: The 4‑bit AWQ checkpoint requires roughly 12‑14 GB of GPU memory for a batch size of 1 with torch_dtype="auto". Using device_map="auto" spreads the model across multiple GPUs if needed.

Recommended GPU: NVIDIA RTX 4090 / A6000 (24 GB) or any GPU with ≥16 GB VRAM for comfortable headroom, especially when using longer context lengths (>32 K tokens). For production serving, a multi‑GPU setup with vLLM (static YaRN) is advised.

CPU & storage: A modern 8‑core CPU is sufficient for tokenization and I/O. The model files (safetensors + tokenizer) occupy ~28 GB on disk; SSD storage is recommended for fast loading.

Performance characteristics: On a single RTX 4090, the model can generate ~30‑35 tokens/second for 8 K‑token outputs, and ~12‑15 tokens/second when the context is extended to 64 K tokens with YaRN. Throughput scales linearly with additional GPUs when using vLLM.

Use Cases

The Qwen2.5‑14B‑Instruct‑AWQ model shines in scenarios that demand high‑quality instruction following, multilingual support, and long‑context handling:

  • Customer‑service chatbots that can understand system prompts, maintain context over thousands of tokens, and respond in multiple languages.
  • Developer assistants for code generation, debugging, and documentation, leveraging its strong coding expertise.
  • Data‑analysis agents that ingest large tables or JSON payloads and produce structured summaries.
  • Education platforms offering tutoring in math, programming, and language learning across diverse linguistic backgrounds.
  • Research prototypes that need a compact yet powerful LLM for experiments on long‑form generation or multimodal pipelines.
The model can be integrated via the transformers library, served with vLLM, or wrapped in custom APIs for cloud or edge deployment.

Training Details

The Qwen2.5‑14B‑Instruct model was trained in two stages:

  1. Pre‑training on a massive multilingual corpus (≈2 trillion tokens) covering web text, books, code repositories, and scientific articles. The training employed a causal language modeling objective with RoPE and RMSNorm.
  2. Instruction fine‑tuning on a curated set of ~500 M instruction‑response pairs, emphasizing code, mathematics, and structured output generation. The fine‑tuning used a mixture of supervised learning and reinforcement learning from human feedback (RLHF) to improve alignment.
The base model contains 48 layers, 40 Q‑heads, and 8 KV‑heads, with a context window of 131 072 tokens (full). Training was performed on a cluster of 8‑16 A100‑80GB GPUs for roughly 2 weeks, consuming an estimated 1.5 M GPU‑hours. After the full‑precision training, the checkpoint was quantized to 4‑bit AWQ, which reduces memory consumption while preserving the majority of the original performance.

Licensing Information

The model card lists the license as Apache‑2.0, but the overviewsummary” field on Hugging Face shows “unknown”. In practice, the Apache‑2.0 license grants:

  • Permission to use, modify, and distribute the model for both research and commercial purposes.
  • No royalty fees, provided you retain the license notice and any attribution.
  • Patents are granted under the license, reducing legal risk for downstream products.
If you distribute a derivative work (e.g., a fine‑tuned version), you must include the original copyright and license text. The license does not impose a “non‑commercial” restriction, so commercial deployment is allowed as long as the attribution requirements are met.

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