Papers › Vision Xformers: Efficient Attention for Image Classification

Vision Xformers: Efficient Attention for Image Classification

5 Jul 2021arXiv:2107.02239archive 2025-07-28

Pranav Jeevan, Amit Sethi

Although transformers have become the neural architectures of choice for natural language processing, they require orders of magnitude more training data, GPU memory, and computations in order to compete with convolutional neural networks for computer vision. The attention mechanism of transformers scales quadratically with the length of the input sequence, and unrolled images have long sequence lengths. Plus, transformers lack an inductive bias that is appropriate for images. We tested three modifications to vision transformer (ViT) architectures that address these shortcomings. Firstly, we alleviate the quadratic bottleneck by using linear attention mechanisms, called X-formers (such that, X in {Performer, Linformer, Nystr\"omformer}), thereby creating Vision X-formers (ViXs). This resulted in up to a seven times reduction in the GPU memory requirement. We also compared their performance with FNet and multi-layer perceptron mixers, which further reduced the GPU memory requirement. Secondly, we introduced an inductive bias for images by replacing the initial linear embedding layer by convolutional layers in ViX, which significantly increased classification accuracy without increasing the model size. Thirdly, we replaced the learnable 1D position embeddings in ViT with Rotary Position Embedding (RoPE), which increases the classification accuracy for the same model size. We believe that incorporating such changes can democratize transformers by making them accessible to those with limited data and computing resources.

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Code

pranavphoenix/ViX officialmentioned on GitHubpytorch report
pranavphoenix/VisionXformer mentioned on GitHubpytorch report

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Tasks

ClassificationImage ClassificationInductive Biasimage-classification

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Results from the paper archive 2025-07-28

TaskDatasetModelMetricValueRank at snapshotLeaderboardReport
Image Classification CIFAR-10 CCN Percentage correct 83.36 #238 of 265 Archive leaderboard report
Image Classification CIFAR-10 CvN Percentage correct 83.26 #239 of 265 Archive leaderboard report
Image Classification CIFAR-10 LeViP Percentage correct 79.50 #251 of 265 Archive leaderboard report
Image Classification CIFAR-10 Hybrid ViT+RoPE Percentage correct 76.9 #254 of 265 Archive leaderboard report
Image Classification CIFAR-10 Hybrid Vision Nystromformer (ViN) Percentage correct 75.26 #256 of 265 Archive leaderboard report
Image Classification CIFAR-10 Hybrid PiN Percentage correct 74 #258 of 265 Archive leaderboard report
Image Classification CIFAR-10 Vision Nystromformer (ViN) Percentage correct 65.06 #261 of 265 Archive leaderboard report

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Methods

Absolute Position EncodingsAdamAttentionBPEDense ConnectionsDropoutFAVOR+Label SmoothingLayer NormalizationLinear LayerLinformerMulti-Head AttentionMulti-Head Linear AttentionNyströmformerPerformerPosition-Wise Feed-Forward LayerResidual ConnectionSoftmaxTransformerVision Transformer

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