Code release for SLIP Self-supervision meets Language-Image Pre-training

Related tags

Deep LearningSLIP
Overview

SLIP: Self-supervision meets Language-Image Pre-training

SLIP framework

What you can find in this repo:

Results and Pre-trained Models

The following models are pre-trained on YFCC15M and evaluated on ImageNet-1K (ILSVRC2012).

ViT-Small (MoCo v3 version w/ 12 vs. 6 heads)

Method Epochs 0-shot Linear Finetuned Weights
CLIP 25 32.7 59.3 78.2 url
SimCLR 25 - 58.1 79.9 url
SLIP 25 38.3 66.4 80.3 url
SLIP 50 39.3 67.6 80.7 url
SLIP 100 39.5 68.3 80.7 url

ViT-Base

Method Epochs 0-shot Linear Finetuned Weights
CLIP 25 37.6 66.5 80.5 url
SimCLR 25 - 64.0 82.5 url
SLIP 25 42.8 72.1 82.6 url
SLIP 50 44.1 73.0 82.9 url
SLIP 100 45.0 73.6 83.4 url

ViT-Large

Method Epochs 0-shot Linear Finetuned Weights
CLIP 25 40.4 70.5 81.0 url
SimCLR 25 - 66.7 84.0 url
SLIP 25 46.2 76.0 84.2 url
SLIP 50 47.4 75.8 84.7 url
SLIP 100 47.9 75.1 84.8 url

1. Setup

Install PyTorch and timm. The code has been tested with CUDA 11.3/CuDNN 8.2.0, PyTorch 1.10.0 and timm 0.5.0.

1.1. YFCC15M Setup

Download the YFCC100M dataset. Our dataloader expects the following dataset directory structure with 100 folders containing 1000 zip archives of 1000 images each. The concatenation of the folder, archive, and file names is the index of the image (i.e. image 12345678 is stored as 678.jpg within 12/345.zip):

/path/to/yfcc100m/
├── images/
│   ├── 00/
│   │   └── 000.zip
│   │   │   ├── 000.jpg
│   │   │   │   ...
│   │   │   └── 999.jpg
│   │   ...
│   │   └── 999.zip
│   ...
│   └── 99/
...

Prepare the YFCC15M subset metadata pickle:

  1. Download and compile a list of downloaded images to flickr_unique_ids.npy (ours)
  2. Download OpenAI's list of captioned YFCC100M images according to instructions here
  3. Run python make_dataset.py to create the yfcc15m.pkl metadata pickle

When pre-training with YFCC15M, set --dataset yfcc15m --root /path/to/yfcc100m --metadata /path/to/yfcc15m.pkl.

1.2. COCO Captions Setup

Download and unzip the 2017 Train images and annotations. When pre-training on COCO, set --dataset coco --root /path/to/coco --metadata /path/to/captions_train2017.json.

1.3. Conceptual Captions Setup

CC3M and CC12M are published as tsv files listing original image urls and processed captions. Download images and collect the captions of all available images (many will be missing due to broken links) into cc3m.npy and cc12m.npy.

For CC3M our dataloader expects cc3m.npy to contain a NumPy array of dicts in the following format:

{
  'image_id': 1510438788,  # local file path relative to root
  'captions': ['large field with pink tulips on a clear sunny summer day with a blue sky']
}

For CC12M our dataloader expects cc12m.npy to contain a NumPy array of dicts in the following format:

{
  'image_name': '0.jpg',  # local file path relative to root
  'image_id': 0,
  'captions': ['Metal Design Within Reach Ivory Slipper Chairs - a Pair For Sale - Image 7 of 10']
}

When pre-training on CC3M set --dataset cc3m --root /path/to/cc3m --metadata /path/to/cc3m.npy, and whe pre-training on CC12M set --dataset cc12m --root /path/to/cc12m --metadata /path/to/cc12m.npy.

1.4. Downstream Dataset Setup

Zero-shot (in main.py and eval_zeroshot.py) and linear (in main_linear.py) evaluations read dataset paths from dataset_catalog.json. Zero-shot evaluations read CLIP's class labels and caption templates from labels.json and templates.json. If just pre-training models on YFCC15M, only the ImageNet path is required for model validation between training epochs. See Section 3 below on zero-shot transfer evaluation for dataset preparation details.

2. Pre-training

We use the following pre-training recipes for SLIP, CLIP, and SimCLR. See main.py for the full list of default arguments. We use the same lr and wd settings for all model sizes within the same training framework, and different model sizes can be selected by passing in different strings to the --model argument such as SLIP_VITS16 or SLIP_VITL16.

In our workflow we use submitit, which interfaces nicely with Slurm. For local training with the torchrun utility (supersedes torch.distributed.launch), replace python run_with_submitit.py with torchrun --nproc_per_node=8 main.py. Local multi-node training with torchrun should also be possible.

We train most of our models on 8x 8-gpu nodes, but training with fewer gpus is possible by reducing the batch size and setting the --update-freq argument above 1 to enable gradient accumulation. Note that gradient accumulation will increase the variance of minibatch statistics and alter the training dynamics of batchnorm, which is used in SLIP and SimCLR.

SLIP ViT-Base with 8-nodes (batch size 4096)

python run_with_submitit.py \
  --root /path/to/yfcc100m \
  --model SLIP_VITB16 \
  --lr 3e-3 --wd 0.1

CLIP ViT-Base with 8-nodes (batch size 4096)

python run_with_submitit.py \
  --root /path/to/yfcc100m \
  --model CLIP_VITB16 \
  --lr 5e-4 --wd 0.5

SimCLR ViT-Base with 8-nodes (batch size 4096)

python run_with_submitit.py \
  --root /path/to/yfcc100m \
  --model SIMCLR_VITB16 \
  --ssl-mlp-dim 4096 --ssl-emb-dim 256 --ssl-temp 0.1 \
  --lr 3.2e-3 --wd 0.1 

Some important arguments:

--dataset: pre-training dataset name. choices include yfcc15m, cc12m, cc3m, coco.

--root: path to dataset root

--metadata: path to metadata file (see section 1 for details)

--ssl-mlp-dim: hidden dim of SimCLR mlp projection head

--ssl-emb-dim: output embed dim of SimCLR mlp projection head

--ssl-scale: loss scale for SimCLR objective

--ssl-temp: softmax temperature for SimCLR objective

--batch-size: number of samples per-device/per-gpu

--lr-start: initial warmup lr

--lr-end: minimum final lr

--update-freq: optimizer update frequency, i.e. gradient accumulation steps

--disable-amp: disable mixed-precision training (requires more memory and compute)

3. Evaluation: Zero-shot Transfer

First, prepare additional downstream classification datasets:

  • MNIST, CIFAR-10/100, STL-10: Automatic download via torchvision datasets
  • HatefulMemes: Manual download from official website and sort images according to train.jsonl/dev.jsonl into train/dev folder
  • Rendered SST2, Country211: Manual download from CLIP repo
  • Other datasets: Use scripts from VISSL

Then set all dataset paths in dataset_catalog.json.

Evaluate zero-shot transfer to various classification benchmarks with eval_zeroshot.py, which reads labels and templates from labels.json/templates.json and dataset paths from dataset_catalog.json. Inference is performed with a single gpu. By default, the script iterates through all datasets in dataset_catalog.json and evaluates zero-shot in order. Evaluation can be limited to a subset of datasets by replacing for d in datasets: with for d in ['imagenet']: on line 78.

python eval_zeroshot.py --resume /path/to/checkpoint.pt

4. Evaluation: Linear Classification

We use a modified version of the MoCo v3 ImageNet linear classification script, main_linear.py. We use the same single node 8-gpu recipe for all model sizes. See main_linear.py for the full list of default arguments. As with pre-training, our workflow uses submitit. For local training with torchrun, replace python run_with_submitit_linear.py with torchrun --nproc_per_node=8 main_linear.py. This script reads the ImageNet dataset path from the dataset catalog (dataset_catalog.json), which must be set properly before training.

python run_with_submitit_linear.py  \
  --arch vit_base_patch16_224 --dataset imagenet \
  --pretrained /path/to/checkpoint.pt

To evaluate linear classification on other datasets, set --dataset to the corresponding dataset name listed in dataset_catalog.json.

5. Evaluation: End-to-End Finetuning

We use a modified version of the ImageNet finetuning script from BeiT. Our code has been tested with commit f8f3df8. We have removed the explicit torch, torchvision, and timm dependencies from beit_finetuning/requirements.txt, as they conflict with the versions used in our SLIP code (CUDA 11.3/CuDNN 8.2.0, PyTorch 1.10.0 and timm 0.5.0). The fintuning code has been modified and tested to work with these versions.

5.1. Setup

To evaluate end-to-end finetuning on ImageNet, first clone the BeiT repo and checkout the correct commit:

git clone [email protected]:microsoft/unilm.git
cd unilm/beit
git checkout f8f3df8

Now copy over modified files from our beit_finetuning directory:

cp beit_finetuning/* unilm/beit
cd unilm/beit

Install pip dependencies and Nvidia Apex:

pip install -r requirements.txt
git clone https://github.com/NVIDIA/apex
cd apex
pip install -v --disable-pip-version-check --no-cache-dir --global-option="--cpp_ext" --global-option="--cuda_ext" ./

5.2. Commands

As with pre-training, our workflow uses submitit. For local training with torchrun, replace python run_with_submitit_finetune.py with torchrun --nproc_per_node=8 run_class_finetuning.py. We established finetuning recipes based on the BeiT recipes with some light additional hyperparameter tuning. We increase regularization with model size: ViT-S uses drop_path=0 and layer_decay=0.65, ViT-B uses drop_path=0.1 and layer_decay=0.65, and ViT-L uses drop_path=0.1 and layer_decay=0.75. Note the use of the --finetune argument instead of --resume.

ViT-Small (MoCo v3 version w/ 12 vs. 6 heads)

python run_with_submitit_finetune.py \
    --batch_size 128 --enable_deepspeed \
    --epochs 100 --warmup_epochs 20 \
    --model beit_small_patch16_224 --nb_classes 1000 \
    --imagenet_default_mean_and_std \
    --model_key state_dict --model_prefix module.visual. \
    --disable_rel_pos_bias --abs_pos_emb --use_cls \
    --mixup 0.8 --cutmix 1 \
    --layer_scale_init_value 0 \
    --lr 4e-3 --drop_path 0 --layer_decay 0.65 \
    --output_dir /path/to/output_dir --finetune /path/to/checkpoint.pt

ViT-Base

python run_with_submitit_finetune.py \
    --batch_size 128 --enable_deepspeed \
    --epochs 100 --warmup_epochs 20 \
    --model beit_base_patch16_224 --nb_classes 1000 \
    --imagenet_default_mean_and_std \
    --model_key state_dict --model_prefix module.visual. \
    --disable_rel_pos_bias --abs_pos_emb --use_cls \
    --mixup 0.8 --cutmix 1 \
    --layer_scale_init_value 0 \
    --lr 4e-3 --drop_path 0.1 --layer_decay 0.65 \
    --output_dir /path/to/output_dir --finetune /path/to/checkpoint.pt

ViT-Large

python run_with_submitit_finetune.py \
    --batch_size 128 --enable_deepspeed \
    --epochs 50 --warmup_epochs 5 \
    --model beit_large_patch16_224 --nb_classes 1000 \
    --imagenet_default_mean_and_std \
    --model_key state_dict --model_prefix module.visual. \
    --disable_rel_pos_bias --abs_pos_emb --use_cls \
    --mixup 0.8 --cutmix 1 \
    --layer_scale_init_value 0 \
    --lr 4e-3 --drop_path 0.1 --layer_decay 0.75 \
    --output_dir /path/to/output_dir --finetune /path/to/checkpoint.pt

License

This project is under the CC-BY-NC 4.0 license. See LICENSE for details.

Citation

@Article{mu2021slip,
  author  = {Norman Mu and Alexander Kirillov and David Wagner and Saining Xie},
  title   = {SLIP: Self-supervision meets Language-Image Pre-training},
  journal = {arXiv preprint arXiv:2112.12750},
  year    = {2021},
}
Owner
Meta Research
Meta Research
This is the second place solution for : UmojaHack Africa 2022: African Snake Antivenom Binding Challenge

UmojaHack-Africa-2022-African-Snake-Antivenom-Binding-Challenge This is the second place solution for : UmojaHack Africa 2022: African Snake Antivenom

Mami Mokhtar 10 Dec 03, 2022
Code for the Paper: Conditional Variational Capsule Network for Open Set Recognition

Conditional Variational Capsule Network for Open Set Recognition This repository hosts the official code related to "Conditional Variational Capsule N

Guglielmo Camporese 35 Nov 21, 2022
A complete end-to-end demonstration in which we collect training data in Unity and use that data to train a deep neural network to predict the pose of a cube. This model is then deployed in a simulated robotic pick-and-place task.

Object Pose Estimation Demo This tutorial will go through the steps necessary to perform pose estimation with a UR3 robotic arm in Unity. You’ll gain

Unity Technologies 187 Dec 24, 2022
ADSPM: Attribute-Driven Spontaneous Motion in Unpaired Image Translation

ADSPM: Attribute-Driven Spontaneous Motion in Unpaired Image Translation This repository provides a PyTorch implementation of ADSPM. Requirements Pyth

24 Jul 24, 2022
Final term project for Bayesian Machine Learning Lecture (XAI-623)

Mixquality_AL Final Term Project For Bayesian Machine Learning Lecture (XAI-623) Youtube Link The presentation is given in YoutubeLink Problem Formula

JeongEun Park 3 Jan 18, 2022
NeWT: Natural World Tasks

NeWT: Natural World Tasks This repository contains resources for working with the NeWT dataset. ❗ At this time the binary tasks are not publicly avail

Visipedia 26 Oct 18, 2022
Machine Learning toolbox for Humans

Reproducible Experiment Platform (REP) REP is ipython-based environment for conducting data-driven research in a consistent and reproducible way. Main

Yandex 662 Nov 20, 2022
prior-based-losses-for-medical-image-segmentation

Repository for papers: Benchmark: Effect of Prior-based Losses on Segmentation Performance: A Benchmark Midl: A Surprisingly Effective Perimeter-based

Rosana EL JURDI 9 Sep 07, 2022
Numba-accelerated Pythonic implementation of MPDATA with examples in Python, Julia and Matlab

PyMPDATA PyMPDATA is a high-performance Numba-accelerated Pythonic implementation of the MPDATA algorithm of Smolarkiewicz et al. used in geophysical

Atmospheric Cloud Simulation Group @ Jagiellonian University 15 Nov 23, 2022
Retinal Vessel Segmentation with Pixel-wise Adaptive Filters (ISBI 2022)

Official code of Retinal Vessel Segmentation with Pixel-wise Adaptive Filters and Consistency Training (ISBI 2022)

anonymous 14 Oct 27, 2022
Final project for machine learning (CSC 590). Detection of hepatitis C and progression through blood samples.

Hepatitis C Blood Based Detection Final project for machine learning (CSC 590). Dataset from Kaggle. Using data from previous hepatitis C blood panels

Jennefer Maldonado 1 Dec 28, 2021
COVINS -- A Framework for Collaborative Visual-Inertial SLAM and Multi-Agent 3D Mapping

COVINS -- A Framework for Collaborative Visual-Inertial SLAM and Multi-Agent 3D Mapping Version 1.0 COVINS is an accurate, scalable, and versatile vis

ETHZ V4RL 183 Dec 27, 2022
Repository of best practices for deep learning in Julia, inspired by fastai

FastAI Docs: Stable | Dev FastAI.jl is inspired by fastai, and is a repository of best practices for deep learning in Julia. Its goal is to easily ena

FluxML 532 Jan 02, 2023
MoveNet Single Pose on DepthAI

MoveNet Single Pose tracking on DepthAI Running Google MoveNet Single Pose models on DepthAI hardware (OAK-1, OAK-D,...). A convolutional neural netwo

64 Dec 29, 2022
An implementation of chunked, compressed, N-dimensional arrays for Python.

Zarr Latest Release Package Status License Build Status Coverage Downloads Gitter Citation What is it? Zarr is a Python package providing an implement

Zarr Developers 1.1k Dec 30, 2022
Fast and simple implementation of RL algorithms, designed to run fully on GPU.

RSL RL Fast and simple implementation of RL algorithms, designed to run fully on GPU. This code is an evolution of rl-pytorch provided with NVIDIA's I

Robotic Systems Lab - Legged Robotics at ETH Zürich 68 Dec 29, 2022
Multi-resolution SeqMatch based long-term Place Recognition

MRS-SLAM for long-term place recognition In this work, we imply an multi-resolution sambling based visual place recognition method. This work is based

METASLAM 6 Dec 06, 2022
Invasive Plant Species Identification

Invasive_Plant_Species_Identification Used LiDAR Odometry and Mapping (LOAM) to create a 3D point cloud map which can be used to identify invasive pla

2 May 12, 2022
Code for WECHSEL: Effective initialization of subword embeddings for cross-lingual transfer of monolingual language models.

WECHSEL Code for WECHSEL: Effective initialization of subword embeddings for cross-lingual transfer of monolingual language models. arXiv: https://arx

Institute of Computational Perception 45 Dec 29, 2022
Ranger deep learning optimizer rewrite to use newest components

Ranger21 - integrating the latest deep learning components into a single optimizer Ranger deep learning optimizer rewrite to use newest components Ran

Less Wright 266 Dec 28, 2022