You can deploy this model and start earning money today!

tomaarsen/
BGE-VL-large

Name: BGE-VL-large
Availability: InStock

sentence-transformers

openai/clip-vit-large-patch14

finetune

mit

endpoints_compatible

Views

No views yet

MegaPairs: Massive Data Synthesis For Universal Multimodal Retrieval

Build

News

2024-3-4 🚀🚀 We have released the BGE-VL-MLLM models on Huggingface: BGE-VL-MLLM-S1 and BGE-VL-MLLM-S2. BGE-VL-MLLM-S1 is trained exclusively on our MegaPairs dataset, achieving outstanding performance in composed image retrieval, with an 8.1% improvement on the CIRCO benchmark (mAP@5) over the previous state-of-the-art. BGE-VL-MLLM-S2 builds on BGE-VL-MLLM-S1 with an additional epoch of fine-tuning on the MMEB benchmark training set, delivering enhanced performance across a broader range of multimodal embedding tasks.

2024-12-27 🚀🚀 BGE-VL-CLIP models are released on Huggingface: BGE-VL-base and BGE-VL-large.

2024-12-19 🎉🎉 Release our paper: MegaPairs: Massive Data Synthesis For Universal Multimodal Retrieval.

Release Plan

Paper
BGE-VL-base and BGE-VL-large models
BGE-VL-MLLM model
MegaPairs Dataset
Evaluation code
Fine-tuning code

Introduction

In this work, we introduce MegaPairs, a novel data synthesis method that leverages open-domain images to create heterogeneous KNN triplets for universal multimodal retrieval. Our MegaPairs dataset contains over 26 million triplets, and we have trained a series of multimodal retrieval models, BGE-VL, including BGE-VL-CLIP (base and large) and BGE-VL-MLLM.

BGE-VL achieve state-of-the-art performance on four popular zero-shot composed image retrieval benchmarks and the massive multimodal embedding benchmark (MMEB). Extensive experiments demonstrate the efficiency, scalability, and generalization features of MegaPairs. Please refer to our paper for more details.

Model Usage

Using Sentence Transformers

Install Sentence Transformers:

pip install sentence_transformers[image]

python

from sentence_transformers import SentenceTransformer

model = SentenceTransformer("BAAI/BGE-VL-large", trust_remote_code=True)

query_image = "https://huggingface.co/BAAI/BGE-VL-large/resolve/main/assets/cir_query.png"
candidate_1 = "https://huggingface.co/BAAI/BGE-VL-large/resolve/main/assets/cir_candi_1.png"
candidate_2 = "https://huggingface.co/BAAI/BGE-VL-large/resolve/main/assets/cir_candi_2.png"

# Encode text
text_embeddings = model.encode(["A dog sitting on a bench", "A cat sleeping on a couch"])
print(text_embeddings.shape)
# (2, 768)

# Encode images
image_embeddings = model.encode([query_image, candidate_1])
print(image_embeddings.shape)
# (2, 768)

# Compute similarities
similarities = model.similarity(text_embeddings, image_embeddings)
print(similarities)
# tensor([[0.1255, 0.1018],
#         [0.0161, 0.0271]])

# Composed image retrieval: encode image+text query, compare with image candidates
query_embeddings = model.encode([{
    "image": query_image,
    "text": "Make the background dark, as if the camera has taken the photo at night",
}])
candidate_embeddings = model.encode([candidate_1, candidate_2])
scores = model.similarity(query_embeddings, candidate_embeddings)
print(scores)
# tensor([[0.3696, 0.1714]])

You can pass string texts, images as PIL Images, local paths, URLs, or a combination of text and images (with a dictionary format) to the model's encode function. The model will automatically process the inputs and return the corresponding embeddings. You can then compute cosine similarities or perform retrieval tasks based on these embeddings.

Using transformers

You can easily use BGE-VL-CLIP models based on transformers

python

import torch
from transformers import AutoModel

MODEL_NAME = "BAAI/BGE-VL-base" # or "BAAI/BGE-VL-large"

model = AutoModel.from_pretrained(MODEL_NAME, trust_remote_code=True) # You must set trust_remote_code=True
model.set_processor(MODEL_NAME)
model.eval()

with torch.no_grad():
    query = model.encode(
        images = "./assets/cir_query.png", 
        text = "Make the background dark, as if the camera has taken the photo at night"
    )

    candidates = model.encode(
        images = ["./assets/cir_candi_1.png", "./assets/cir_candi_2.png"]
    )
    
    scores = query @ candidates.T
print(scores)

See the demo for a complete example of using BGE-VL for multimodel retrieval.

2. BGE-VL-MLLM Models

python

import torch
from transformers import AutoModel
from PIL import Image

MODEL_NAME= "BAAI/BGE-VL-MLLM-S1"

model = AutoModel.from_pretrained(MODEL_NAME, trust_remote_code=True)
model.eval()
model.cuda()

with torch.no_grad():
    model.set_processor(MODEL_NAME)

    query_inputs = model.data_process(
        text="Make the background dark, as if the camera has taken the photo at night", 
        images="./assets/cir_query.png",
        q_or_c="q",
        task_instruction="Retrieve the target image that best meets the combined criteria by using both the provided image and the image retrieval instructions: "
    )

    candidate_inputs = model.data_process(
        images=["./assets/cir_candi_1.png", "./assets/cir_candi_2.png"],
        q_or_c="c",
    )

    query_embs = model(**query_inputs, output_hidden_states=True)[:, -1, :]
    candi_embs = model(**candidate_inputs, output_hidden_states=True)[:, -1, :]
    
    query_embs = torch.nn.functional.normalize(query_embs, dim=-1)
    candi_embs = torch.nn.functional.normalize(candi_embs, dim=-1)

    scores = torch.matmul(query_embs, candi_embs.T)
print(scores)

Model Performance

Zero-Shot Composed Image Retrieval

BGE-VL sets a new performance benchmark in zero-shot composed image retrieval tasks. On the CIRCO benchmark, our BGE-VL-base model, with only 149 million parameters, surpasses all previous models, including those with 50 times more parameters. Additionally, BGE-VL-MLLM achieves an 8.1% improvement over the previous state-of-the-art model.

Zero-Shot Performance on MMEB

BGE-VL-MLLM achieves state-of-the-art zero-shot performance on the Massive Multimodal Embedding Benchmark (MMEB), despite being trained only on the ImageText-to-Image paradigm. This demonstrates the excellent generalization capability of MegaPairs for multimodal embedding.

Fine-Tuning Performance on MMEB

After fine-tuning on downstream tasks, BGE-VL-MLLM maintains its leading performance. Notably, it surpasses the previous state-of-the-art by 7.1% on the MMEB out-of-distribution (OOD) set. These results demonstrate the robust generalization capability of BGE-VL-MLLM and highlight the potential of MegaPairs as foundational training data for universal multimodal embedding.

Performance Scaling

MegaPairs showcases scalability: BGE-VL-base improves as training data increases. It also demonstrates efficiency: with just 0.5M training samples, BGE-VL-base significantly outperforms MagicLens, which uses the same CLIP-base backbone and was trained on 36.7M samples.

License

The annotations for MegaPairs and the BGE-VL models are released under the MIT License. The images in MegaPairs originate from the Recap-Datacomp, which is released under the CC BY 4.0 license.

Citation

If you find this repository useful, please consider giving a star ⭐ and citation

@article{zhou2024megapairs,
  title={MegaPairs: Massive Data Synthesis For Universal Multimodal Retrieval},
  author={Zhou, Junjie and Liu, Zheng and Liu, Ze and Xiao, Shitao and Wang, Yueze and Zhao, Bo and Zhang, Chen Jason and Lian, Defu and Xiong, Yongping},
  journal={arXiv preprint arXiv:2412.14475},
  year={2024}
}

tomaarsen/BGE-VL-large

MegaPairs: Massive Data Synthesis For Universal Multimodal Retrieval

News

Release Plan

Introduction

Model Usage

Using Sentence Transformers

Using transformers

2. BGE-VL-MLLM Models

Model Performance

Zero-Shot Composed Image Retrieval

Zero-Shot Performance on MMEB

Fine-Tuning Performance on MMEB

Performance Scaling

License

Citation

tomaarsen/
BGE-VL-large