MTLoRA: A Low-Rank Adaptation Approach for Efficient Multi-Task Learning

• URL: http://arxiv.org/abs/2403.20320v1
• Date: Fri, 29 Mar 2024 17:43:58 GMT
• Title: MTLoRA: A Low-Rank Adaptation Approach for Efficient Multi-Task Learning
• Authors: Ahmed Agiza, Marina Neseem, Sherief Reda,
• Abstract summary: Adapting models pre-trained on large-scale datasets to a variety of downstream tasks is a common strategy in deep learning. parameter-efficient fine-tuning methods have emerged as a promising way to adapt pre-trained models to different tasks while training only a minimal number of parameters. We introduce MTLoRA, a novel framework for parameter-efficient training of Multi-Task Learning models.
• Score: 1.4396109429521227
• License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
• Abstract: Adapting models pre-trained on large-scale datasets to a variety of downstream tasks is a common strategy in deep learning. Consequently, parameter-efficient fine-tuning methods have emerged as a promising way to adapt pre-trained models to different tasks while training only a minimal number of parameters. While most of these methods are designed for single-task adaptation, parameter-efficient training in Multi-Task Learning (MTL) architectures is still unexplored. In this paper, we introduce MTLoRA, a novel framework for parameter-efficient training of MTL models. MTLoRA employs Task-Agnostic and Task-Specific Low-Rank Adaptation modules, which effectively disentangle the parameter space in MTL fine-tuning, thereby enabling the model to adeptly handle both task specialization and interaction within MTL contexts. We applied MTLoRA to hierarchical-transformer-based MTL architectures, adapting them to multiple downstream dense prediction tasks. Our extensive experiments on the PASCAL dataset show that MTLoRA achieves higher accuracy on downstream tasks compared to fully fine-tuning the MTL model while reducing the number of trainable parameters by 3.6x. Furthermore, MTLoRA establishes a Pareto-optimal trade-off between the number of trainable parameters and the accuracy of the downstream tasks, outperforming current state-of-the-art parameter-efficient training methods in both accuracy and efficiency. Our code is publicly available.

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