HYU-NLP-EVAL/qwen3-4b-rar-medicine-onlinerubrics-dense-seed11-step-055

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-onlinerubrics-dense-seed11-step-055 is a 4 billion parameter Qwen3-based model, developed by HYU-NLP-EVAL. This model is a dense checkpoint from the 'phase1-online-rubrics-medicine-full-dense-20260919-seed11' run, specifically step 55, and is optimized for research in the medical domain. It features a 32768 token context length and is intended for specialized medical natural language processing tasks.

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Overview

This model, named HYU-NLP-EVAL/qwen3-4b-rar-medicine-onlinerubrics-dense-seed11-step-055, is a 4 billion parameter variant based on the Qwen3 architecture. Developed by HYU-NLP-EVAL, it represents a specific dense checkpoint (step 55) from the phase1-online-rubrics-medicine-full-dense-20260919-seed11 training run. It is provided with a BF16 model for inference and includes the original veRL checkpoint files containing only model parameters.

Key Capabilities

  • Specialized Medical Domain Focus: This model is derived from a training run explicitly named for "medicine" and "online rubrics," indicating a specialization in medical natural language processing tasks.
  • Dense Checkpoint: It is a dense checkpoint, suggesting a fully trained state within its specific training phase.
  • Research Use: The model is explicitly designated for research purposes, implying its utility for academic or experimental applications in medical NLP.

Good for

  • Medical NLP Research: Ideal for researchers exploring language understanding and generation within the medical field.
  • Experimentation with Online Rubrics: Suitable for studies involving online rubrics, particularly in a medical context.
  • Fine-tuning and Analysis: Can serve as a base for further fine-tuning or for analyzing the performance of Qwen3-based models on specialized medical datasets.