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Hauptverfasser: Carrigg, Kieran, van Gastel, Rob, Yeghaian, Melda, Dalm, Sander, Boughorbel, Faysal, van Gerven, Marcel
Format: Preprint
Veröffentlicht: 2025
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Online-Zugang:https://arxiv.org/abs/2510.14657
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author Carrigg, Kieran
van Gastel, Rob
Yeghaian, Melda
Dalm, Sander
Boughorbel, Faysal
van Gerven, Marcel
author_facet Carrigg, Kieran
van Gastel, Rob
Yeghaian, Melda
Dalm, Sander
Boughorbel, Faysal
van Gerven, Marcel
contents Masked Autoencoder (MAE) pre-training of vision transformers (ViTs) yields strong performance in low-label data regimes but comes with substantial computational costs, making it impractical in time- and resource-constrained industrial settings. We address this by integrating Decorrelated Backpropagation (DBP) into MAE pre-training, an optimization method that iteratively reduces input correlations at each layer to accelerate convergence. Applied selectively to the encoder, DBP achieves faster pre-training without loss of stability. To mimic constrained-data scenarios, we evaluate our approach on ImageNet-1K pre-training and ADE20K fine-tuning using randomly sampled subsets of each dataset. Under this setting, DBP-MAE reduces wall-clock time to baseline performance by 21.1%, lowers carbon emissions by 21.4%, and improves segmentation mIoU by 1.1 points. We observe similar gains when pre-training and fine-tuning on proprietary industrial data, confirming the method's applicability in real-world scenarios. These results demonstrate that DBP can reduce training time and energy use while improving downstream performance for large-scale ViT pre-training. Keywords: Deep learning, Vision transformers, Efficient AI, Decorrelation
format Preprint
id arxiv_https___arxiv_org_abs_2510_14657
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Decorrelation Speeds Up Vision Transformers
Carrigg, Kieran
van Gastel, Rob
Yeghaian, Melda
Dalm, Sander
Boughorbel, Faysal
van Gerven, Marcel
Computer Vision and Pattern Recognition
Machine Learning
Masked Autoencoder (MAE) pre-training of vision transformers (ViTs) yields strong performance in low-label data regimes but comes with substantial computational costs, making it impractical in time- and resource-constrained industrial settings. We address this by integrating Decorrelated Backpropagation (DBP) into MAE pre-training, an optimization method that iteratively reduces input correlations at each layer to accelerate convergence. Applied selectively to the encoder, DBP achieves faster pre-training without loss of stability. To mimic constrained-data scenarios, we evaluate our approach on ImageNet-1K pre-training and ADE20K fine-tuning using randomly sampled subsets of each dataset. Under this setting, DBP-MAE reduces wall-clock time to baseline performance by 21.1%, lowers carbon emissions by 21.4%, and improves segmentation mIoU by 1.1 points. We observe similar gains when pre-training and fine-tuning on proprietary industrial data, confirming the method's applicability in real-world scenarios. These results demonstrate that DBP can reduce training time and energy use while improving downstream performance for large-scale ViT pre-training. Keywords: Deep learning, Vision transformers, Efficient AI, Decorrelation
title Decorrelation Speeds Up Vision Transformers
topic Computer Vision and Pattern Recognition
Machine Learning
url https://arxiv.org/abs/2510.14657