H2ovl Mississippi 2b

Multimodal Vision-Language Model

The H2OVL-Mississippi-2B is a high-performing, general-purpose vision-language model that excels in tasks like image captioning, visual question answering, and document understanding. With 2 billion parameters, it strikes a balance between performance and efficiency, making it suitable for document processing, OCR, VQA, and more. By integrating vision and language tasks, it offers a versatile and scalable solution for document AI, OCR, and multimodal reasoning. But what makes this model unique? Its comprehensive dataset of 17M image-text pairs ensures broad coverage and strong task generalization. How does it perform? It achieves high performance across various benchmarks, competing with larger models. What does this mean for you? You can expect fast, accurate results for your vision-language tasks, without breaking the bank. Whether you're working on document AI, OCR, or multimodal reasoning, the H2OVL-Mississippi-2B is a practical choice that's optimized for real-world use.

H2oai apache-2.0 Updated 5 months ago

Table of Contents

Model Overview

The H2OVL-Mississippi-2B model, developed by H2O.ai, is a high-performing, general-purpose vision-language model designed to handle a wide range of multimodal tasks. With 2 billion parameters, this model excels in tasks such as image captioning, visual question answering (VQA), and document understanding, while maintaining efficiency for real-world applications.

Capabilities

The H2OVL-Mississippi-2B model is a powerful tool for handling a wide range of multimodal tasks, including:

  • Image captioning
  • Visual question answering (VQA)
  • Document understanding
  • OCR
  • Multimodal reasoning

Key Features

  • 2 Billion Parameters: Offers a balance between performance and efficiency, making it suitable for document processing, OCR, VQA, and more.
  • Optimized for Vision-Language Tasks: Achieves high performance across a wide range of applications, including document AI, OCR, and multimodal reasoning.
  • Comprehensive Dataset: Trained on 17M image-text pairs, ensuring broad coverage and strong task generalization.
Examples
Describe this image in detail. The image is a photograph of a cat sitting on a windowsill, looking outside. The cat is a grey and white domestic shorthair, with bright green eyes and a fluffy tail. The windowsill is wooden and has a few scratches on it. In the background, you can see a blurred view of a garden with trees and flowers. The overall mood of the image is peaceful and serene.
Extract the data from the table image and format it as JSON: { "products": [ { "product_name": "", "price": "", "quantity": 0 } ] } {'products': [{'product_name': 'Apples', 'price': '$2', 'quantity': 10}, {'product_name': 'Bananas', 'price': '$1', 'quantity': 20}, {'product_name': 'Oranges', 'price': '$3', 'quantity': 15}]}
What are the similarities and differences between these two images. The two images are similar in that they both depict a cat sitting on a windowsill, looking outside. However, the main difference is that the first image has a more blurred background, while the second image has a clearer view of the garden. Additionally, the cat in the first image appears to be more relaxed, while the cat in the second image seems more alert.

Performance Comparison

The H2OVL-Mississippi-2B model competes with larger models across various benchmarks, offering a versatile and scalable solution for document AI, OCR, and multimodal reasoning.

ModelParams (B)Avg. Score
Qwen2-VL-2B2.157.2
H2OVL-Mississippi-2B2.154.4
InternVL2-2B2.153.9
==Phi-3-Vision==4.253.6
MiniMonkey2.252.7

Getting Started

To get started with the H2OVL-Mississippi-2B model, you can use the following example code:

import torch
from transformers import AutoModel, AutoTokenizer

model_path = 'h2oai/h2ovl-mississippi-2b'
model = AutoModel.from_pretrained(model_path, torch_dtype=torch.bfloat16, low_cpu_mem_usage=True, trust_remote_code=True).eval().cuda()
tokenizer = AutoTokenizer.from_pretrained(model_path, trust_remote_code=True, use_fast=False)

Prompt Engineering for JSON Extraction

The H2OVL-Mississippi-2B model can be used for JSON extraction from images. To get started, you can follow the prompt engineering guide, which provides examples for extracting simple information, nested information, lists and arrays, tables, and charts.

Best Practices

  • Be explicit: Clearly define the desired keys and structure in your prompt to avoid ambiguity.
  • Use examples: Provide sample outputs so that the system can understand the expected format.
  • Anticipate variations: Consider possible variations in the visual data and ensure the prompt can accommodate them.
  • Start simple: Begin with simple structures, and progressively increase complexity as needed.
  • Test and iterate: Refine your prompts through testing to ensure accuracy and consistency in outputs.

Limitations

The H2OVL-Mississippi-2B model is a powerful tool, but it’s not perfect. Let’s explore some of its limitations.

  • Data Bias: The model is trained on a large dataset of 17M image-text pairs, but this dataset may still contain biases.
  • Limited Domain Knowledge: While the H2OVL-Mississippi-2B model is a general-purpose model, it may not have in-depth knowledge in specific domains like medicine, law, or finance.
  • Image Quality and Size: The model’s performance may degrade with low-quality or very large images.
  • Multimodal Limitations: While the H2OVL-Mississippi-2B model is designed for multimodal tasks, it may not always be able to understand the nuances of human communication.
  • Dependence on Prompt Engineering: The model’s performance is highly dependent on the quality of the prompt.
  • Comparison to Other Models: The H2OVL-Mississippi-2B model is compared to other models in the benchmark results, but it’s essential to note that each model has its strengths and weaknesses.
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