Use this skill when you want to scale vision transformers to 22B parameters using JFT data with efficient training techniques. Avoid it when you do not need a very large vision encoder.
Scanned 9/8/2026
Install to Claude Code
npx -y skills add feiyang-k/curation-bench --skill scaling-vision-transformers-to-22-billion-parameters-arxiv-2302-05442v1 --agent claude-codeInstalls into .claude/skills of the current project.
Are you the author of Scaling Vision Transformers To 22 Billion Parameters Arxiv 2302 05442v1?
Add the live security badge to your README — it updates automatically with every re-scan.
[](https://www.skillsdirectory.com/skills/feiyang-k-scaling-vision-transformers-to-22-billion-paramete)More formats (shields.io, HTML) on the badges page.
# Scaling Vision Transformers to 22 Billion Parameters
## One-line decision
Use this skill when you want to scale vision transformers to 22B parameters using JFT data with efficient training techniques. Avoid it when you do not need a very large vision encoder.
## Skill metadata
- **Skill type**: scaled-vision-encoder-pretraining
- **Paper kind**: operational-method
- **Actionability**: high
- **Evidence quality**: full_paper
## Goal
Scale Vision Transformers to 22 billion parameters using JFT-4B data with efficient training techniques, producing ViT-22B as a strong vision backbone for VLM pipelines.
## Problem signature
- Modality: images for vision transformer pretraining at extreme scale.
- Data state: JFT-4B dataset of 4 billion labeled images.
- Scale regime: 4 billion images, 22 billion parameters.
- Model requirement: ViT-22B with parallel attention, QK normalization, and other scaling modifications.
## Use when
- You need the largest possible vision encoder.
- You can afford training at 22B parameter scale.
- You need maximum visual representation quality.
## Do not use when
- Smaller ViT models are sufficient.
- You cannot afford extreme-scale training.
- Deployment constraints require smaller models.
## Required inputs
- **jft_4b**: 4 billion labeled images from JFT.
- **scaled_architecture**: ViT with scaling modifications for stability.
- **training_infrastructure**: Large-scale TPU/GPU infrastructure.
## Optional inputs
- **distillation**: Distillation to smaller models.
## Outputs
- **vit_22b**: 22B parameter vision transformer.
- **scaled_features**: Extremely rich visual representations.
## Assumptions and prerequisites
- Scaling vision transformers improves representation quality.
- JFT-4B provides sufficient data for 22B training.
- Architecture modifications enable stable training at extreme scale.
## Procedure
1. **Scale ViT architecture**
Action: Add parallel attention, QK normalization for stable 22B training.
Why: Standard ViT becomes unstable at extreme scale.
Note: See paper for details.
2. **Train on JFT-4B**
Action: Train ViT-22B on 4 billion labeled images.
Why: Massive data is needed for massive models.
Note: See paper for details.
3. **Evaluate representations**
Action: Test frozen features on downstream tasks.
Why: Validates representation quality.
Note: See paper for details.
4. **Distill to smaller models**
Action: Optionally distill to smaller deployable models.
Why: Transfers knowledge to practical sizes.
Note: See paper for details.
## Parameters to set
- **model_params** — Role: Total model parameters. How to set: 22B for maximum capability. Default/range: 22B. Effect: Larger models capture more visual information.
- **training_data** — Role: Training data for pretraining. How to set: JFT-4B for sufficient scale. Default/range: 4B images. Effect: More data enables larger models.
## Validation checks
- ViT-22B should outperform smaller ViTs on representation quality.
- Training should be stable with the scaling modifications.
- Features should transfer effectively to downstream tasks.
## Failure modes
- 22B parameters require massive compute.
- Training instability is a major risk at this scale.
- Diminishing returns from further scaling.
## Adaptation notes for VLM training
- ViT-22B features provide the richest visual representations for VLMs.
- Distillation enables practical deployment of large-scale knowledge.
- The scaling techniques are reusable for other architectures.
## Implementation notes
- Use the paper's architectural modifications for stability.
- Implement efficient distributed training.
- Monitor training loss carefully for instability signs.
## Evidence from the paper
- ViT-22B is the largest dense vision transformer at publication time.
- The model achieves state-of-the-art representation quality.
- JFT-4B provides sufficient data for training at this scale.
- Architectural modifications enable stable training at extreme scale.
## Source paper
- **Title**: Scaling Vision Transformers to 22 Billion Parameters
- **Year**: 2023
- **Venue**: ICML
- **Paper ID**: arxiv-2302.05442v1
- **URL**: http://arxiv.org/abs/2302.05442v1
- **arXiv ID**: 2302.05442v1
Is this your skill, or is something wrong with this listing? Request removal or report an issue. Author removals are honored within 72 hours.
No comments yet. Be the first to comment!