Jeesup/MUSE-News_Llama-2-7b_ga_gdr_alpha1_ep10

TEXT GENERATIONConcurrent Unit Cost:1Model Size:7BQuant:FP8Context Size:4kPublished:Jun 15, 2026Architecture:Transformer Featherless Exclusive Cold

Jeesup/MUSE-News_Llama-2-7b_ga_gdr_alpha1_ep10 is a 7 billion parameter Llama-2-7b based model, fine-tuned by Jeesup, specifically unlearned from the MUSE-News dataset using the ga_gdr method over 10 epochs. This model focuses on evaluating the effectiveness of unlearning techniques, particularly in mitigating specific dataset memorization. It is primarily designed for research into LLM unlearning, offering insights into how different quantization methods impact unlearning metrics like verbal memorization and privacy leakage.

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MUSE-News Unlearned Model (Llama-2-7b)

This model, developed by Jeesup, is a Llama-2-7b variant that has undergone an unlearning process from the MUSE-News_target dataset. The unlearning was performed using the ga_gdr method, applied over 10 epochs with an alpha value of 1 and a learning rate of 1e-5, utilizing a maximum sequence length of 2048 tokens. The underlying code for this unlearning process is based on the FailureLLMUnlearning framework, as detailed in the ICLR'25 paper "Catastrophic Failure of LLM Unlearning via Quantization".

Key Capabilities and Focus

  • LLM Unlearning Research: Specifically designed to demonstrate and evaluate the effectiveness of unlearning techniques on large language models.
  • Quantization Impact: Provides a platform to analyze how different quantization methods (e.g., bf16, NF4, GPTQ4, AWQ4) affect the success of unlearning, particularly concerning verbal memorization and privacy leakage.
  • MUSE Core Metrics: Evaluated against specific MUSE core metrics including precision, verbmem_f, privleak, knowmem_f, and knowmem_r to quantify unlearning performance.

Good for

  • Researchers: Ideal for academics and researchers studying LLM unlearning, catastrophic forgetting, and the impact of quantization on model behavior.
  • Evaluating Unlearning Methods: Useful for comparing the efficacy of the ga_gdr unlearning method against other techniques.
  • Understanding Quantization Effects: Provides data points for understanding how various quantization schemes interact with and potentially compromise unlearning efforts.

Detailed evaluation results across different precisions (full, nf4, gptq4, awq4) are available, highlighting the varying degrees of unlearning success and potential trade-offs. For a comprehensive breakdown of the evaluation, refer to the full results table.