HYU-NLP-EVAL/qwen3-4b-rar-medicine-static-r0-matched-dense-seed11-step-010

TEXT GENERATIONPricing:Input $0.4 / Cached $0.08 / Output $0.8Concurrent Unit Cost:1Model Size:4BQuant:BF16Context Size:32kTool Calling:SupportedPublished:Oct 1, 2026License:apache-2.0Architecture:Transformer Open Weights Featherless Exclusive Cold

The HYU-NLP-EVAL/qwen3-4b-rar-medicine-static-r0-matched-dense-seed11-step-010 is a 4 billion parameter Qwen3-based language model with a 32768 token context length. This model is a RaR-Medicine static R0 matched dense checkpoint, specifically step 10 from the "phase1-static-r0-medicine-qwen3-4b-matched-dense-20260928-seed11" run. It is provided as a BF16 model for inference and is intended for research use only, specializing in medical domain applications.

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Overview

This model, HYU-NLP-EVAL/qwen3-4b-rar-medicine-static-r0-matched-dense-seed11-step-010, is a 4 billion parameter language model built on the Qwen3 architecture. It is a specific checkpoint (step 10) from the "phase1-static-r0-medicine-qwen3-4b-matched-dense-20260928-seed11" run, indicating its origin from a research and development pipeline focused on medical applications.

Key Characteristics

  • Architecture: Based on the Qwen3 model family.
  • Parameter Count: Features 4 billion parameters, offering a balance between performance and computational efficiency.
  • Context Length: Supports a substantial context window of 32768 tokens, enabling processing of longer medical texts.
  • Domain Specialization: This is a RaR-Medicine static R0 matched dense checkpoint, suggesting fine-tuning or training specifically within the medical domain.
  • Inference Format: Provided as a BF16 model, optimized for efficient inference.

Good for

  • Medical Research: Primarily intended for research use in medical natural language processing tasks.
  • Domain-Specific Applications: Suitable for experiments and development requiring a language model with specialized knowledge in medicine.
  • Exploring RaR-Medicine: Useful for researchers investigating the RaR-Medicine framework and its performance on medical datasets.