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SaLoRA: Safety-Alignment Preserved Low-Rank Adaptation
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As advancements in large language models (LLMs) continue and the demand for personalized models increases, parameter-efficient fine-tuning (PEFT) methods (e.g., LoRA) will become essential due to their efficiency in reducing computation costs. However, recent studies have raised alarming concerns that LoRA fine-tuning could potentially compromise the safety alignment in LLMs, posing significant risks for the model owner. In this paper, we first investigate the underlying mechanism by analyzing the changes in safety alignment related features before and after fine-tuning. Then, we propose a fixed safety module calculated by safety data and a task-specific initialization for trainable parameters in low-rank adaptations, termed Safety-alignment preserved Low-Rank Adaptation (SaLoRA). Unlike previous LoRA methods and their variants, SaLoRA enables targeted modifications to LLMs without disrupting their original alignments. Our experiments show that SaLoRA outperforms various adapters-based approaches across various evaluation metrics in different fine-tuning tasks.
Forward citations
Cited by 3 Pith papers
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TRACE: Trajectory-Based Safety Patch Learning for LLM Post-Training Realignment
One low-rank adapter, trained across simulated harmful fine-tuning trajectories, restores ≥94% safety on fine-tuned LLMs while keeping task accuracy within ±1.7% of the undefended model.
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Sparsity-Aware Low-Rank Representation for Efficient Fine-Tuning of Large Language Models
SALR combines static pruning of frozen weights with a trainable truncated-SVD low-rank residual adapter to match LoRA accuracy at 50% sparsity, cutting model size ~2x and giving ~1.7x inference speedup.
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Model Organisms for Emergent Misalignment
Emergent misalignment can be induced in small models via a single rank-1 LoRA adapter, and its onset coincides with a phase transition in the adapter's weight direction.
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