The first-ever Traditional Chinese Medicine large language model - "CMLM-ZhongJing". Inspired by the profound wisdom of the ancient Chinese medical master Zhang Zhongjing, it is a pre-trained large language model designed specifically for the field of Traditional Chinese Medicine.
[ICCV 2025] Official implementation of the paper: REPA-E: Unlocking VAE for End-to-End Tuning of Latent Diffusion Transformers.
Key parameters and specifications
Key parameters and specifications
Parameter
Value
Language
Python
Category
Models
Subcategory
Vision models
Keywords
Computer vision, Image production, Model architecture
Stars
540
Forks
62
Contributors
1
Created date
2024-07-16
Updated date
2026-10-16
Stars in 1 day
1
Stars in 7 days
1
Rank
6,787
Previous rank
6,966
Rank change
179
7-day stars rank
11,426
Previous 7-day stars rank
16,110
7-day stars rank change
4,684
Total stars rank
18,225
Previous total stars rank
18,220
Total stars rank change
-5
Country
China
README summary
Official Repo for Stable-Hair **Stable-Hair: Real-World Hair Transfer via Diffusion Model** *Yuxuan Zhang, Qing Zhang, Yiren Song, Jichao Zhang, Hao Tang, Jiaming Liu* Abstract Current hair transfer methods struggle to handle diverse and intricate hairstyles, limiting their applicability in real-world scenarios. In this paper, we propose a novel diffusion-based hair transfer framework, named Stable-Hair, which robustly transfers a wide range of real-world hairstyles to user-provided faces for virtual hair try-on. To
achieve this goal, our Stable-Hair framework is designed as a two-stage pipeline. In the first stage, we train a Bald Converter alongside stable diffusion to remove hair from the user-provided face images, resulting in bald images. In the second stage, we specifically designed a Hair Extractor and a Latent IdentityNet to transfer the target hairstyle with highly detailed and high-fidelity to the bald image. The Hair Extractor is trained to encode reference images with the desired
hairstyles, while the Latent IdentityNet ensures consistency in identity and background. To minimize color deviations between source images and transfer results, we introduce a novel Latent ControlNet architecture, which functions as both the Bald Converter and Latent IdentityNet. After training on our curated triplet dataset, our method accurately transfers highly detailed and high-fidelity hairstyles to the source images. Extensive experiments demonstrate that our approach achieves state-of-the-art performance compared to existing hair transfer methods. - [x] Training code
Getting Started Environment Setup Our code is built on the diffusers version of Stable Diffusion, In our experiments, we use model version v1-5. If you have a diffusers version of controlnet configured, you can use this repository directly. Download them and save to the directory and . Inference Gradio demo We provide a simple gr demo for more flexible use. Limitation The Results are influenced by the effect of the first stage, if the bald converter does not go well
, the effect of hair transfer is not good. By the way, this released model only trained on a small dataset (6k images for stage1, 2w images for stage2) and all the face images are from FFHQ datasets which means they were cropped and aligned. From my practice, using video and full body datasets to finetune this model is a good way to improve, due to some restrictions the improved model will not be publicly available. If you want to expand
the border of this model, feel free to contact me.
Frequently asked questions
How many stars and forks are recorded?
Xiaojiu-z/Stable-Hair has 540 stars and 62 forks.
What is the repository rank?
Xiaojiu-z/Stable-Hair is ranked 6,787.
What language and category are recorded?
Xiaojiu-z/Stable-Hair has 540 stars, uses Python and belongs to Models.
Which repository is closest in rank?
Xiaojiu-z/Stable-Hair is compared with Mengqi-Lei/count-anything, ranked 6,785 with 540 stars.
README
Official Repo for Stable-Hair
Stable-Hair: Real-World Hair Transfer via Diffusion Model
Current hair transfer methods struggle to handle diverse and intricate hairstyles, limiting their applicability in real-world scenarios. In this paper, we propose a novel diffusion-based hair transfer framework, named Stable-Hair, which robustly transfers a wide range of real-world hairstyles to user-provided faces for virtual hair try-on. To achieve this goal, our Stable-Hair framework is designed as a two-stage pipeline. In the first stage, we train a Bald Converter alongside stable diffusion to remove hair from the user-provided face images, resulting in bald images. In the second stage, we specifically designed a Hair Extractor and a Latent IdentityNet to transfer the target hairstyle with highly detailed and high-fidelity to the bald image. The Hair Extractor is trained to encode reference images with the desired hairstyles, while the Latent IdentityNet ensures consistency in identity and background. To minimize color deviations between source images and transfer results, we introduce a novel Latent ControlNet architecture, which functions as both the Bald Converter and Latent IdentityNet. After training on our curated triplet dataset, our method accurately transfers highly detailed and high-fidelity hairstyles to the source images. Extensive experiments demonstrate that our approach achieves state-of-the-art performance compared to existing hair transfer methods.
Todo List
[x] Stage1 inference code
[x] Stage1 pre-trained weights
[x] Stage2 inference code
[x] Stage2 pre-trained weights
[x] Training code
Getting Started
Environment Setup
Our code is built on the diffusers version of Stable Diffusion, In our experiments, we use model version v1-5. If you have a diffusers version of controlnet configured, you can use this repository directly.
git clone https://github.com/Xiaojiu-z/Stable-Hair.git
cd Stable-Hair
Pretrained Models
Google Drive.
Download them and save to the directory models/stage1 and models/stage2.
Inference
python infer_full.py
Gradio demo
We provide a simple gr demo for more flexible use.
python gradio_demo_full.py
Limitation
The Results are influenced by the effect of the first stage, if the bald converter does not go well, the effect of hair transfer is not good.
By the way, this released model only trained on a small dataset (6k images for stage1, 2w images for stage2) and all the face images are from FFHQ datasets which means they were cropped and aligned. From my practice, using video and full body datasets to finetune this model is a good way to improve, due to some restrictions the improved model will not be publicly available. If you want to expand the border of this model, feel free to contact me.
Cite
@misc{zhang2024stablehairrealworldhairtransfer,
title={Stable-Hair: Real-World Hair Transfer via Diffusion Model},
author={Yuxuan Zhang and Qing Zhang and Yiren Song and Jiaming Liu},
year={2024},
eprint={2407.14078},
archivePrefix={arXiv},
primaryClass={cs.CV},
url={https://arxiv.org/abs/2407.14078},
}