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Tied-Lora: Enhancing parameter efficiency of LoRA with weight tying
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abstract
We introduce Tied-LoRA, a novel paradigm leveraging weight tying and selective training to enhance the parameter efficiency of Low-rank Adaptation (LoRA). Our exploration encompasses different plausible combinations of parameter training and freezing, coupled with weight tying, aimed at identifying the optimal trade-off between performance and the count of trainable parameters. Across $5$ diverse tasks and two foundational language models with different parameter counts, our experiments provide comprehensive insights into the inherent trade-offs between efficiency and performance. Our findings reveal a specific Tied-LoRA configuration that distinguishes itself by showcasing comparable performance to LoRA across multiple tasks while utilizing only a fraction of the parameters employed by the standard LoRA method, particularly at elevated ranks. This underscores the efficacy of Tied-LoRA in achieving impressive results with significantly reduced model complexity.
Forward citations
Cited by 3 Pith papers
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Dynamic Context-oriented Decomposition for Task-aware Low-rank Adaptation with Less Forgetting and Faster Convergence
CorDA++ uses data-driven SVD to initialize LoRA adapters, adding per-layer covariance selection and rank allocation that reduce forgetting and speed convergence compared to LoRA, PiSSA, QLoRA, and other baselines.
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FLoE: Fisher-Based Layer Selection for Efficient Sparse Adaptation of Low-Rank Experts
FLoE uses Fisher information to pick the transformer layers that matter and a Bayesian optimizer to set LoRA rank, cutting trainable parameters while keeping or improving accuracy.
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MAP: Revisiting Weight Decomposition for Low-Rank Adaptation
MAP decouples a weight matrix's direction and magnitude by normalizing the whole matrix and the low-rank update by their Frobenius norms and scaling each with a learnable scalar.
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