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MMPareto: Boosting Multimodal Learning with Innocent Unimodal Assistance
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Multimodal learning methods with targeted unimodal learning objectives have exhibited their superior efficacy in alleviating the imbalanced multimodal learning problem. However, in this paper, we identify the previously ignored gradient conflict between multimodal and unimodal learning objectives, potentially misleading the unimodal encoder optimization. To well diminish these conflicts, we observe the discrepancy between multimodal loss and unimodal loss, where both gradient magnitude and covariance of the easier-to-learn multimodal loss are smaller than the unimodal one. With this property, we analyze Pareto integration under our multimodal scenario and propose MMPareto algorithm, which could ensure a final gradient with direction that is common to all learning objectives and enhanced magnitude to improve generalization, providing innocent unimodal assistance. Finally, experiments across multiple types of modalities and frameworks with dense cross-modal interaction indicate our superior and extendable method performance. Our method is also expected to facilitate multi-task cases with a clear discrepancy in task difficulty, demonstrating its ideal scalability. The source code and dataset are available at https://github.com/GeWu-Lab/MMPareto_ICML2024.
Forward citations
Cited by 3 Pith papers
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Boosting Multimodal Learning via Disentangled Gradient Learning
Disentangled gradient learning replaces the multimodal gradient to each encoder with a unimodal gradient computed via modality dropout, improving both unimodal and multimodal accuracy across several tasks.
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Diverse via bounded Agreement: Geometric Regularization for Multimodal Fusion
A regularization method enforces diverse intra-modal embeddings and bounded inter-modal drift to improve both multimodal fusion and unimodal robustness.
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Improving Multimodal Learning via Imbalanced Learning
Asymmetric Representation Learning reweights each modality's gradient by the inverse of its prediction variance, improving multimodal accuracy on CREMA-D, Kinetics-Sounds, AVE, MOSI, and UCF101.
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