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Random Masking Finds Winning Tickets for Parameter Efficient Fine-tuning
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Random Masking Finds Winning Tickets for Parameter Efficient Fine-tuning
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Fine-tuning large language models (LLM) can be costly. Parameter-efficient fine-tuning (PEFT) addresses the problems by training a fraction of the parameters, whose success reveals the expressiveness and flexibility of pretrained models. This paper studies the limit of PEFT, by further simplifying its design and reducing the number of trainable parameters beyond standard setups. To this end, we use Random Masking to fine-tune the pretrained model. Despite its simplicity, we show that Random Masking is surprisingly effective: with a larger-than-expected learning rate, Random Masking can match the performance of standard PEFT algorithms such as LoRA on various tasks, using fewer trainable parameters. We provide both empirical and theoretical explorations into the success of Random Masking. We show that masking induces a flatter loss landscape and more distant solutions, which allows for and necessitates large learning rates.
Forward citations
Cited by 2 Pith papers
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Enhancing Model Privacy in Federated Learning with Random Masking and Quantization
FedQSN hides part of the server model with random masks and quantizes the remainder to give clients a degraded proxy, reporting a large global-vs-proxy performance gap with modest loss in the final global model.
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GEM: A Scale-Aware and Distribution-Sensitive Sparse Fine-Tuning Framework for Effective Downstream Adaptation
GEM selects fine-tuning parameters by gradient-to-weight ratio and distributes the budget by layer entropy, reaching 0.1% parameter updates with small accuracy gains on several NLP tasks.
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