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ResNet-34 vs Vision Transformer (ViT)

Compare ResNet-34 and Vision Transformer (ViT) side-by-side.

Compare ResNet-34 vs Vision Transformer (ViT) live

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ResNet-34 vs Vision Transformer (ViT) Comparison Table

Evals updated July 24, 2026Pricing updated July 26, 2026

PropertyResNet-34Vision Transformer (ViT)
OrganizationMetaGoogle
Categoryopenopen
Modalityvisionvision
Release DateDec 2015Oct 2020
Context Window
Parameters21.8M86M-632M
LicenseMITApache 2.0
Vision Tasks
Classification

ResNet-34 vs Vision Transformer (ViT): Overview

ResNet-34

ResNet-34 is a deep residual network for image classification introduced by Kaiming He et al. in December 2015. It is a medium-sized variant in the original ResNet family, designed for ImageNet-scale classification with 34 convolutional layers organized into residual blocks using skip connections. These connections allow the model to learn residual mappings rather than full transformations, mitigating the vanishing gradient problem and enabling stable training of deeper architectures.

ResNet-34 achieves a top-5 error rate of 7.36% on the ImageNet validation set. It is widely used as a backbone for transfer learning across classification, detection, and segmentation tasks and remains a common baseline architecture in computer vision research. The model is available through Meta's torchvision library.

Vision Transformer (ViT)

Vision Transformer is an image classification model developed by Google Research, first published in October 2020. It applies the transformer architecture directly to sequences of image patches without convolutional layers. Each image is divided into fixed-size patches, linearly projected into embeddings, and processed by a standard transformer encoder with multi-head self-attention. A classification token prepended to the patch sequence aggregates global image information for the final prediction.

When pre-trained on large datasets such as JFT-300M and fine-tuned on ImageNet, ViT achieves competitive accuracy with state-of-the-art CNNs of the period. It performs best when pre-training data is abundant, as the lack of convolutional inductive biases makes it less data-efficient than CNN-based classifiers on smaller datasets. ViT established the foundation for transformer-based vision architectures and has influenced a broad range of subsequent models.