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| title: MV+ (Machine Vision Plus) | |
| emoji: π¬ | |
| colorFrom: blue | |
| colorTo: purple | |
| sdk: static | |
| pinned: true | |
| # π¬ MV+ (Machine Vision Plus) | |
| **A Novel Paradigm for Advanced Computer Vision** | |
| MV+ (Machine Vision Plus) represents a groundbreaking approach to building computer vision models that revolutionize how we extract and utilize visual information. Unlike traditional computer vision systems that rely solely on spatial features, MV+ introduces a paradigm shift by combining **spatial and structural features** derived from transient images (1D time-resolved data) to make more accurate and robust inferences. | |
| --- | |
| ## π¬ Demo | |
| <p align="center"> | |
| <img src="https://huggingface.co/spaces/mvplus/README/resolve/main/demo_loop.gif" alt="MV+ Demo" width="100%" style="max-width: 720px; border-radius: 8px;" /> | |
| </p> | |
| --- | |
| ## π Key Features | |
| ### π― **Dual-Feature Architecture** | |
| - **Spatial Features**: Traditional 2D/3D spatial information from static images | |
| - **Structural Features**: Novel 1D time-resolved transient image data | |
| - **Fusion**: Intelligent combination of both feature types for superior performance | |
| ### π **Advanced Vision Models** | |
| MV+ provides state-of-the-art implementations across multiple computer vision domains: | |
| #### **Tested Object Detection models with material classifier for dual detection** | |
| - **DINOv3 Custom**: Self-supervised vision transformer for robust object detection | |
| - **YOLOv3 Custom**: Real-time object detection with custom training | |
| - **YOLOv8 Custom**: Latest YOLO architecture with enhanced accuracy | |
| #### **Material Analysis** | |
| - **Material Detection Head**: Classification of flat homogeneous surfaces | |
| - **Material Purity Detection**: Fluid purity analysis (e.g., homogenized milk) | |
| - **Natural Material Detection**: Identification of natural vs. synthetic materials | |
| #### **Specialized Detection** | |
| - **Flat Surface Detection**: Precise identification of planar surfaces | |
| - **Spatiotemporal Detection**: Time-series based motion and change detection | |
| ### π¬ **Research Innovation** | |
| MV+ introduces a novel methodology that: | |
| - Extracts structural information from transient 1D signals | |
| - Combines temporal and spatial features for enhanced understanding | |
| - Achieves superior performance compared to conventional single-modality approaches | |
| - Enables new applications in material science, quality control, and industrial inspection | |
| --- | |
| ## π Applications | |
| ### Industrial Quality Control | |
| - **Material Purity Verification**: Detect impurities in fluids and materials | |
| - **Surface Quality Assessment**: Analyze flat surfaces for defects | |
| - **Real-time Inspection**: Automated quality control in manufacturing | |
| ### Scientific Research | |
| - **Material Classification**: Distinguish between natural and synthetic materials | |
| - **Structural Analysis**: Extract structural features from transient signals | |
| - **Multi-modal Fusion**: Combine spatial and temporal information | |
| ### Computer Vision Research | |
| - **Novel Architecture**: Explore new paradigms in vision model design | |
| - **Feature Extraction**: Advanced techniques for multi-modal feature fusion | |
| - **Benchmarking**: State-of-the-art performance on various datasets | |
| --- | |
| ## π οΈ Technical Architecture | |
| ### Model Components | |
| 1. **Spatial Feature Extractor**: Processes traditional 2D/3D image data | |
| 2. **Structural Feature Extractor**: Analyzes 1D time-resolved transient signals | |
| 3. **Feature Fusion Module**: Intelligently combines spatial and structural features | |
| 4. **Inference Engine**: Makes predictions based on fused feature representations | |
| ### Supported Frameworks | |
| - **PyTorch**: Primary deep learning framework | |
| - **YOLO**: Real-time object detection | |
| - **DINOv3**: Self-supervised vision transformers | |
| - **Custom Architectures**: Specialized models for specific applications | |
| --- | |
| ## π Performance Highlights | |
| - **High Accuracy**: State-of-the-art performance on material classification tasks | |
| - **Robust Detection**: Improved reliability through multi-modal feature fusion | |
| - **Real-time Processing**: Efficient inference suitable for industrial applications | |
| - **Generalization**: Strong performance across diverse datasets and scenarios | |
| --- | |
| ## π Resources | |
| ### Publications | |
| For detailed information about the MV+ methodology, architecture, and experimental results, please refer to the associated research publications. | |
| ### Datasets | |
| MV+ includes curated datasets for: | |
| - Material detection and classification | |
| - Object detection and recognition | |
| - Surface quality assessment | |
| - Fluid purity analysis | |
| ### Models | |
| Pre-trained models available for: | |
| - DINOv3-based object detection | |
| - YOLOv3/YOLOv8 custom detectors | |
| - Material classification models | |
| - Spatiotemporal analysis models | |
| --- | |
| ## π Research Impact | |
| MV+ represents a significant advancement in computer vision research by: | |
| 1. **Introducing Novel Paradigm**: First systematic approach to combining spatial and structural features from transient images | |
| 2. **Enabling New Applications**: Opens possibilities for material science, quality control, and industrial inspection | |
| 3. **Improving Performance**: Demonstrates superior results compared to conventional single-modality approaches | |
| 4. **Advancing the Field**: Contributes to the evolution of multi-modal computer vision systems | |
| --- | |
| <div align="center"> | |
| *Project designed and developed by **Deborah Akuoko** as part of PhD thesis under the supervision of **Dr. Istvan Gyongy** of **University of Edinburgh*** | |
| </div> | |