hyunseoki/verl-math-transfer-7bi-to-3bi-fix05-pool7to1

Hugging Face
TEXT GENERATIONConcurrency Cost:1Model Size:7.6BQuant:FP8Ctx Length:32kPublished:Mar 30, 2026Architecture:Transformer Warm

The hyunseoki/verl-math-transfer-7bi-to-3bi-fix05-pool7to1 model is a 7.6 billion parameter Qwen2ForCausalLM architecture, developed by hyunseoki, specifically designed for mathematical transfer learning experiments using the verl framework. This model focuses on transferring mathematical capabilities from a 7B to a 3B configuration, making it suitable for research and applications requiring efficient mathematical reasoning. It provides multiple checkpoint revisions, allowing for granular analysis of the transfer learning process.

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Model Overview

This repository hosts the hyunseoki/verl-math-transfer-7bi-to-3bi-fix05-pool7to1 model, a 7.6 billion parameter language model built on the Qwen2ForCausalLM architecture. It represents a math transfer experiment conducted using the verl framework, specifically focusing on transferring mathematical knowledge from a 7 billion parameter configuration to a 3 billion parameter configuration with a fix_0_5 pool7to1 setup.

Key Features

  • Mathematical Transfer Learning: Designed for experiments in transferring mathematical reasoning capabilities between different model sizes.
  • Qwen2ForCausalLM Architecture: Based on the robust Qwen2 causal language model family.
  • Multiple Checkpoint Revisions: Includes various step- revisions (e.g., step-010 to step-090), allowing users to load specific stages of the training process for detailed analysis or fine-tuning.
  • Hugging Face Compatibility: Exported in safetensors format for easy integration and usage with the Hugging Face transformers library.

Usage Considerations

This model is particularly useful for researchers and developers interested in:

  • Exploring the dynamics of knowledge transfer in mathematical domains.
  • Benchmarking the performance of smaller models after transfer learning.
  • Developing applications that require mathematical reasoning with a focus on efficiency and reduced parameter count.