The higher resolution images from the picture above can be seen in the docs/imgs/compare/ and docs/imgs/input folders.
Automated high-quality background removal framework for an image using neural networks.
- High Quality
- Batch Processing
- NVIDIA CUDA and CPU processing
- FP16 inference: Fast inference with low memory usage
- Easy inference
- 100% remove.bg compatible FastAPI HTTP API
- Removes background from hairs
- Easy integration with your code
⛱ Try yourself on Google Colab
It can be briefly described as
- The user selects a picture or a folder with pictures for processing
- The photo is preprocessed to ensure the best quality of the output image
- Using machine learning technology, the background of the image is removed
- Image post-processing to improve the quality of the processed image
Networks | Target | Accuracy |
---|---|---|
Tracer-B7 (default) | General (objects, animals, etc) | 90% (mean F1-Score, DUTS-TE) |
U^2-net | Hairs (hairs, people, animals, objects) | 80.4% (mean F1-Score, DUTS-TE) |
BASNet | General (people, objects) | 80.3% (mean F1-Score, DUTS-TE) |
DeepLabV3 | People, Animals, Cars, etc | 67.4% (mean IoU, COCO val2017) |
Networks | Segmentation mask size | Trimap parameters (dilation, erosion) |
---|---|---|
tracer_b7 |
640 | (30, 5) |
u2net |
320 | (30, 5) |
basnet |
320 | (30, 5) |
deeplabv3 |
1024 | (40, 20) |
- The final quality may depend on the resolution of your image, the type of scene or object.
- Use U2-Net for hairs and Tracer-B7 for general images and correct parameters.
It is very important for final quality! Example images was taken by using U2-Net and FBA post-processing.
none
- No preprocessing methods used.
They will be added in the future.
none
- No post-processing methods used.fba
(default) - This algorithm improves the borders of the image when removing the background from images with hair, etc. using FBA Matting neural network. This method gives the best result in combination with u2net without any preprocessing methods.
pip install carvekit --extra-index-url https://download.pytorch.org/whl/cpu
The project has been tested on Python versions ranging from 3.9 to 3.11.7.
- Make sure you have an NVIDIA GPU with 8 GB VRAM.
- Install
CUDA Toolkit 12.1 and Video Driver for your GPU
pip install carvekit --extra-index-url https://download.pytorch.org/whl/cu121
The project has been tested on Python versions ranging from 3.9 to 3.11.7.
import torch
from carvekit.api.high import HiInterface
# Check doc strings for more information
interface = HiInterface(object_type="hairs-like", # Can be "object" or "hairs-like".
batch_size_seg=5,
batch_size_matting=1,
device='cuda' if torch.cuda.is_available() else 'cpu',
seg_mask_size=640, # Use 640 for Tracer B7 and 320 for U2Net
matting_mask_size=2048,
trimap_prob_threshold=231,
trimap_dilation=30,
trimap_erosion_iters=5,
fp16=False)
images_without_background = interface(['./tests/data/cat.jpg'])
cat_wo_bg = images_without_background[0]
cat_wo_bg.save('2.png')
import PIL.Image
from carvekit.api.interface import Interface
from carvekit.ml.wrap.fba_matting import FBAMatting
from carvekit.ml.wrap.tracer_b7 import TracerUniversalB7
from carvekit.pipelines.postprocessing import MattingMethod
from carvekit.pipelines.preprocessing import PreprocessingStub
from carvekit.trimap.generator import TrimapGenerator
# Check doc strings for more information
seg_net = TracerUniversalB7(device='cpu',
batch_size=1)
fba = FBAMatting(device='cpu',
input_tensor_size=2048,
batch_size=1)
trimap = TrimapGenerator()
preprocessing = PreprocessingStub()
postprocessing = MattingMethod(matting_module=fba,
trimap_generator=trimap,
device='cpu')
interface = Interface(pre_pipe=preprocessing,
post_pipe=postprocessing,
seg_pipe=seg_net)
image = PIL.Image.open('tests/data/cat.jpg')
cat_wo_bg = interface([image])[0]
cat_wo_bg.save('2.png')
python3 -m carvekit -i <input_path> -o <output_path> --device <device>
Usage: carvekit [OPTIONS]
Performs background removal on specified photos using console interface.
Options:
-i ./2.jpg Path to input file or dir [required]
-o ./2.png Path to output file or dir
--pre none Preprocessing method
--post fba Postprocessing method.
--net tracer_b7 Segmentation Network. Check README for more info.
--recursive Enables recursive search for images in a folder
--batch_size 10 Batch Size for list of images to be loaded to
RAM
--batch_size_seg 5 Batch size for list of images to be processed
by segmentation network
--batch_size_mat 1 Batch size for list of images to be processed
by matting network
--seg_mask_size 640 The size of the input image for the
segmentation neural network. Use 640 for Tracer B7 and 320 for U2Net
--matting_mask_size 2048 The size of the input image for the matting
neural network.
--trimap_dilation 30 The size of the offset radius from the
object mask in pixels when forming an
unknown area
--trimap_erosion 5 The number of iterations of erosion that the
object's mask will be subjected to before
forming an unknown area
--trimap_prob_threshold 231
Probability threshold at which the
prob_filter and prob_as_unknown_area
operations will be applied
--device cpu Processing Device.
--fp16 Enables mixed precision processing. Use only with CUDA. CPU support is experimental!
--help Show this message and exit.
Using the API via docker is a fast and non-complex way to have a working API.
Our docker images are available on Docker Hub.
Version tags are the same as the releases of the project with suffixes-cpu
and-cuda
for CPU and CUDA versions respectively.
Docker image has default front-end at
/
url and FastAPI backend with docs at/docs
url.Authentication is enabled by default.
Token keys are reset on every container restart if ENV variables are not set.
Seedocker-compose.<device>.yml
for more information.
You can see your access keys in the docker container logs.There are examples of interaction with the API.
Seedocs/code_examples/python
for more details
- Install
docker-compose
- Run
docker-compose -f docker-compose.cpu.yml up -d
# For CPU Processing - Run
docker-compose -f docker-compose.cuda.yml up -d
# For GPU Processing
Also you can mount folders from your host machine to docker container and use the CLI interface inside the docker container to process files in this folder.
Building a docker image on Windows is not officially supported. You can try using WSL2 or "Linux Containers Mode" but I haven't tested this.
pip install -r requirements_test.txt
pytest
- Run
docker-compose -f docker-compose.cpu.yml run carvekit_api pytest
# For testing on CPU - Run
docker-compose -f docker-compose.cuda.yml run carvekit_api pytest
# For testing on GPU
👪 Credits: More info
You can thank me for developing this project and buy me a small cup of coffee ☕
Blockchain | Cryptocurrency | Network | Wallet |
---|---|---|---|
Ethereum | ETH / USDT / USDC / BNB / Dogecoin | Mainnet | 0x7Ab1B8015020242D2a9bC48F09b2F34b994bc2F8 |
Ethereum | ETH / USDT / USDC / BNB / Dogecoin | BSC (Binance Smart Chain) | 0x7Ab1B8015020242D2a9bC48F09b2F34b994bc2F8 |
Bitcoin | BTC | - | bc1qmf4qedujhhvcsg8kxpg5zzc2s3jvqssmu7mmhq |
ZCash | ZEC | - | t1d7b9WxdboGFrcVVHG2ZuwWBgWEKhNUbtm |
Tron | TRX | - | TH12CADSqSTcNZPvG77GVmYKAe4nrrJB5X |
Monero | XMR | Mainnet | 48w2pDYgPtPenwqgnNneEUC9Qt1EE6eD5MucLvU3FGpY3SABudDa4ce5bT1t32oBwchysRCUimCkZVsD1HQRBbxVLF9GTh3 |
TON | TON | - | EQCznqTdfOKI3L06QX-3Q802tBL0ecSWIKfkSjU-qsoy0CWE |
I will be glad to receive feedback on the project and suggestions for integration.
For all questions write: farvard34@gmail.com