PyTorch implementation of paper "StarEnhancer: Learning Real-Time and Style-Aware Image Enhancement" (ICCV 2021 Oral)

Overview

StarEnhancer

StarEnhancer: Learning Real-Time and Style-Aware Image Enhancement (ICCV 2021 Oral)

Abstract: Image enhancement is a subjective process whose targets vary with user preferences. In this paper, we propose a deep learning-based image enhancement method covering multiple tonal styles using only a single model dubbed StarEnhancer. It can transform an image from one tonal style to another, even if that style is unseen. With a simple one-time setting, users can customize the model to make the enhanced images more in line with their aesthetics. To make the method more practical, we propose a well-designed enhancer that can process a 4K-resolution image over 200 FPS but surpasses the contemporaneous single style image enhancement methods in terms of PSNR, SSIM, and LPIPS. Finally, our proposed enhancement method has good interactability, which allows the user to fine-tune the enhanced image using intuitive options.

StarEnhancer

Getting started

Install

We test the code on PyTorch 1.8.1 + CUDA 11.1 + cuDNN 8.0.5, and close versions also work fine.

pip install -r requirements.txt

We mainly train the model on RTX 2080Ti * 4, but a smaller mini batch size can also work.

Prepare

You can generate your own dataset, or download the one we generate.

The final file path should be the same as the following:

┬─ save_model
│   ├─ stylish.pth.tar
│   └─ ... (model & embedding)
└─ data
    ├─ train
    │   ├─ 01-Experts-A
    │   │   ├─ a0001.jpg
    │   │   └─ ... (id.jpg)
    │   └─ ... (style folder)
    ├─ valid
    │   └─ ... (style folder)
    └─ test
        └─ ... (style folder)

Download

Data and pretrained models are available on GoogleDrive.

Generate

  1. Download raw data from MIT-Adobe FiveK Dataset.
  2. Download the modified Lightroom database fivek.lrcat, and replace the original database with it.
  3. Generate dataset in JPEG format with quality 100, which can refer to this issue.
  4. Run generate_dataset.py in data folder to generate dataset.

Train

Firstly, train the style encoder:

python train_stylish.py

Secondly, fetch the style embedding for each sample in the train set:

python fetch_embedding.py

Lastly, train the curve encoder and mapping network:

python train_enhancer.py

Test

Just run:

python test.py

Testing LPIPS requires about 10 GB GPU memory, and if an OOM occurs, replace the following lines

lpips_val = loss_fn_alex(output * 2 - 1, target_img * 2 - 1).item()

with

lpips_val = 0

Notes

Due to agreements, we are unable to release part of the source code. This repository provides a pure python implementation for research use. There are some differences between the repository and the paper as follows:

  1. The repository uses a ResNet-18 w/o BN as the curve encoder's backbone, and the paper uses a more lightweight model.
  2. The paper uses CUDA to implement the color transform function, and the repository uses torch.gather to implement it.
  3. The repository removes some tricks used in training lightweight models.

Overall, this repository can achieve higher performance, but will be slightly slower.

Comments
  • Multi-style, unpaired setting

    Multi-style, unpaired setting

    您好,在多风格非配对图场景,能否交换source和target的位置,并将得到的output_A和output_B进一步经过enhancer,得到recover_A和recover_B。最后计算l1_loss(source, recover_A)和l1_loss(target, recover_B)及Triplet_loss(output_A,target, source) 和 Triplet_loss(output_B,source,target)

    def train(train_loader, mapping, enhancer, criterion, optimizer):
        losses = AverageMeter()
        criterionTriplet = torch.nn.TripletMarginLoss(margin=1.0, p=2)
        FEModel = Feature_Extract_Model().cuda()
    
        mapping.train()
        enhancer.train()
    
        for (source_img, source_center, target_img, target_center) in train_loader:
            source_img = source_img.cuda(non_blocking=True)
            source_center = source_center.cuda(non_blocking=True)
            target_img = target_img.cuda(non_blocking=True)
            target_center = target_center.cuda(non_blocking=True)
    
            style_A = mapping(source_center)
            style_B = mapping(target_center)
    
            output_A = enhancer(source_img, style_A, style_B)
            output_B = enhancer(target_img, style_B, style_A)
            recoverA = enhancer(output_A, style_B, style_A)
            recoverB = enhancer(output_B, style_A, style_B)
    
            source_img_feature = FEModel(source_img)
            target_img_feature = FEModel(target_img)
            output_A_feature = FEModel(output_A)
            output_B_feature = FEModel(output_B)
    
            loss_l1 = criterion(recoverA, source_img) + criterion(recoverB, target_img)
            loss_triplet = criterionTriplet(output_B_feature, source_img_feature, target_img_feature) + \
                           criterionTriplet(output_A_feature, target_img_feature, source_img_feature)
            loss = loss_l1 + loss_triplet
    
            losses.update(loss.item(), args.t_batch_size)
    
            optimizer.zero_grad()
            loss.backward()
            optimizer.step()
    
        return losses.avg
    
    opened by jxust01 4
  • Questions about dataset preparation

    Questions about dataset preparation

    您好,我想用您的工程跑一下自己的数据,现在有输入,输出一组数据对,训练数据里面A-E剩下的4种效果是怎样生成的呢,这些目标效果数据能否是非成对的呢?如果只有一种风格,能否A-E目标效果都拷贝成一样的数据呢,在train_enhancer.py所训练的单风格脚本是需要embeddings.npy文件,这个文件在单风格训练时是必须的吗

    opened by zener90818 4
  • Dataset processing

    Dataset processing

    你好,我在您提供的fivek.lrcat没找到 DeepUPE issue里的"(default) input with ExpertC"。请问单风格实验的输入是下图中的“InputAsShotZeroed”还是“(Q)InputZeroed with ExpertC WhiteBalance” image

    opened by madfff 2
  • Configure Renovate

    Configure Renovate

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    • requirements.txt (pip_requirements)

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    opened by renovate[bot] 1
  • The results are not the same as the paper

    The results are not the same as the paper

    I am the author.

    Some peers have emailed me asking about the performance of the open source model that does not agree with the results in the paper. As stated in the README, the model is not the model of the paper, but the performance is similar. The exact result should be: PSNR: 25.41, SSIM: 0.942, LPIPS: 0.085

    If you find that your result is not this, then it may be that the JPEG codec is different, which is related to the version of opencv and how it is installed.

    You can uninstall your opencv (either with pip or conda) and reinstall it using pip (it must be pip, because conda installs a different JPEG codec):

    pip install opencv-python==4.5.5.62​
    
    opened by IDKiro 0
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