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Improving Multimodal Learning with Multi-Loss Gradient Modulation
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Learning from multiple modalities, such as audio and video, offers opportunities for leveraging complementary information, enhancing robustness, and improving contextual understanding and performance. However, combining such modalities presents challenges, especially when modalities differ in data structure, predictive contribution, and the complexity of their learning processes. It has been observed that one modality can potentially dominate the learning process, hindering the effective utilization of information from other modalities and leading to sub-optimal model performance. To address this issue the vast majority of previous works suggest to assess the unimodal contributions and dynamically adjust the training to equalize them. We improve upon previous work by introducing a multi-loss objective and further refining the balancing process, allowing it to dynamically adjust the learning pace of each modality in both directions, acceleration and deceleration, with the ability to phase out balancing effects upon convergence. We achieve superior results across three audio-video datasets: on CREMA-D, models with ResNet backbone encoders surpass the previous best by 1.9% to 12.4%, and Conformer backbone models deliver improvements ranging from 2.8% to 14.1% across different fusion methods. On AVE, improvements range from 2.7% to 7.7%, while on UCF101, gains reach up to 6.1%.
Forward citations
Cited by 2 Pith papers
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ShapKO: Shapley-Adaptive Modality Knockout for Robust Multimodal Learning
Adaptive per-modality knockout rates from Shapley-estimated validation utility improve missing-modality robustness over fixed knockout and gradient modulation on three clinical benchmarks.
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Improving Multimodal Learning Balance and Sufficiency through Data Remixing
Data Remixing improves multimodal learning by decoupling samples into per-modality subsets and training each batch on a single modality, yielding accuracy gains on CREMAD and Kinetic-Sounds.
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