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Prompt-Driven Image Analysis - GEN-AI for Segmentation, Transformation and Interpretation
Table of contents
Prompt-Driven Image Analysis: Integrating Gen-AI for Segmentation, Object Transformation, and Cognitive Interpretation
Author: Kaleem Ahmad
Repo: PromptDrivenImageAnalysis
Overview
This project leverages state-of-the-art generative AI technologies to enable intuitive, natural language-driven image analysis. Users can perform tasks such as segmentation, object transformation, and cognitive interpretation of images through a prompt-driven interface. By combining advanced image processing models with NLP capabilities, the system makes complex tasks accessible and interactive.
Key Features
1. Natural Language Processing Interface
- Allows users to input commands in plain language.
- Simplifies the process of performing advanced image analysis tasks.
2. Advanced Image Segmentation and Transformation
- Enables precise segmentation of images into distinct components using models like SAM (Segment Anything Model).
- Supports transformations such as style alterations and object replacements.
3. Cognitive Image Analysis
- Provides a deeper understanding of image context, content, and semantics using LLaVA.
- Delivers detailed insights and interpretations based on user prompts.
Technology Stack
Component | Technology/Tool |
---|---|
Frontend | Gradio |
Backend Frameworks | GANs, PyTorch, Transformers |
Segmentation | SAM (Segment Anything Model) by Meta |
Visual Grounding | GroundingDINO by IDEA-Research |
Image Transformation | Stable Diffusion by StabilityAI |
Cognitive Analysis | LLaVA |
Model Integrations
1. GroundingDINO
- Facilitates text-based object detection and annotation.
- Accurately identifies and locates objects within images based on textual descriptions.
2. SAM (Segment Anything Model)
- Used for precise image segmentation tasks.
- Segments images into distinct regions as per user commands.
3. Stable Diffusion
- Enables creative modifications and inpainting of images.
- Applies artistic transformations seamlessly.
4. LLaVA
- Combines vision and language to enhance cognitive analysis.
- Understands and interprets image context for meaningful insights.
Core Components
1. Gradio Interface (gradio_demo.ipynb
)
- Interactive UI built with Gradio.
- Features widgets for image upload, segmentation, and prompt input.
- Includes elements like progress bars and HTML displays for real-time feedback.
2. Main Codebase (main_code.ipynb
)
- Core implementation for model initialization, image analysis, and transformation.
- Leverages GPU acceleration for high-efficiency processing.
Usage Instructions
Gradio Interface
- Upload Image:
- Load an image into the platform.
- Segment Objects:
- Specify objects to be segmented using natural language descriptions.
- Apply Transformations:
- Use commands to apply masks, replace objects, or alter styles.
- Cognitive Analysis:
- Input prompts to receive detailed semantic interpretations of the image.
Main Code
- Setup Environment:
- Install necessary libraries:
jupyter
,tensorflow
,opencv
,gradio
, etc. - Use a GPU-accelerated environment (e.g., T4 GPU).
- Install necessary libraries:
- Run the Notebook:
- Open
main_code.ipynb
in Jupyter Notebook or JupyterLab. - Execute code cells sequentially to initialize models and perform tasks.
- Open
- Interactive Features:
- Utilize widgets for dynamic parameter adjustments.
Project Workflow
Step 1: Input
- Upload an image and provide natural language prompts.
Step 2: Processing
- Text-based commands are interpreted using GroundingDINO.
- Segmentation and transformations are handled by SAM and Stable Diffusion.
Step 3: Output
- Segmented images, transformed visuals, or cognitive analyses are presented to the user.
Project Structure
Files and Notebooks
File | Description |
---|---|
gradio_demo.ipynb | Contains the interactive Gradio-based interface. |
main_code.ipynb | Core implementation of image analysis tasks. |
Gradio Interface Components
- HTMLModel: Displays HTML content in the interface.
- FloatProgressModel: Visualizes task progress with a progress bar.
- LayoutModel: Defines the layout and positioning of widgets.
References
License
Creative Commons Attribution-ShareAlike (CC BY-SA).
Models
Datasets
There are no datasets linked