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+ ---
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+ annotations_creators: []
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+ language: en
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+ size_categories:
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+ - n<1K
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+ task_categories:
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+ - image-segmentation
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+ task_ids: []
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+ pretty_name: OD_MetalDAM
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+ tags:
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+ - fiftyone
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+ - image
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+ - image-segmentation
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+ dataset_summary: >
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+
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+
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+
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+
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+ This is a [FiftyOne](https://github.com/voxel51/fiftyone) dataset with 42
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+ samples.
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+
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+
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+ ## Installation
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+
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+
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+ If you haven't already, install FiftyOne:
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+
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+
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+ ```bash
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+
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+ pip install -U fiftyone
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+
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+ ```
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+
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+
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+ ## Usage
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+
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+
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+ ```python
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+
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+ import fiftyone as fo
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+
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+ from fiftyone.utils.huggingface import load_from_hub
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+
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+
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+ # Load the dataset
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+
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+ # Note: other available arguments include 'max_samples', etc
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+
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+ dataset = load_from_hub("Voxel51/OD_MetalDAM")
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+
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+
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+ # Launch the App
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+
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+ session = fo.launch_app(dataset)
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+
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+ ```
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+ license: mit
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+ ---
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+
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+ # Dataset Card for OD_MetalDAM
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+
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+
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+ The OD_MetalDAM (Metallography Dataset from Additive Manufacturing) is a specialized computer vision dataset containing 42 high-resolution scanning electron microscope (SEM) images of metal microstructures from additive manufacturing processes.
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+
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+ Each image includes pixel-level semantic segmentation masks identifying five distinct metallurgical phases and features: Matrix, Austenite, Martensite/Austenite, Precipitate, and Defects.
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+
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+ This is a [FiftyOne](https://github.com/voxel51/fiftyone) dataset with 42 samples.
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+
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+ ## Installation
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+
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+ If you haven't already, install FiftyOne:
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+
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+ ```bash
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+ pip install -U fiftyone
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+ ```
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+
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+ ## Usage
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+
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+ ```python
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+ import fiftyone as fo
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+ from fiftyone.utils.huggingface import load_from_hub
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+
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+ # Load the dataset
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+ # Note: other available arguments include 'max_samples', etc
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+ dataset = load_from_hub("Voxel51/OD_MetalDAM")
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+
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+ # Launch the App
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+ session = fo.launch_app(dataset)
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+ ```
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+
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+ ## Dataset Details
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+
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+ ### Dataset Description
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+
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+ The OD_MetalDAM dataset is a comprehensive metallography dataset specifically designed for computer vision applications in materials science and additive manufacturing quality control.
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+
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+ The dataset consists of 42 carefully curated scanning electron microscope (SEM) images of metal microstructures, each accompanied by detailed pixel-level segmentation masks and rich metadata.
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+
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+ Key features of the dataset:
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+ - **High-resolution SEM images**: Each micrograph is captured at various magnifications (5,000x to 15,000x)
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+
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+ - **Pixel-level annotations**: Five distinct classes representing different metallurgical phases and features
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+
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+ - **Comprehensive metadata**: Including magnification levels, scale bar measurements, and pixel counts for each phase
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+
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+ - **Pre-processed images**: Images are cropped to remove information bands, ensuring clean training data
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+
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+ - **Semantic segmentation masks**: Color-coded masks for easy visualization and model training
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+
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+ The dataset addresses the critical need for automated microstructure analysis in additive manufacturing, where understanding phase distributions, defect detection, and material characterization are essential for quality assurance and process optimization.
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+
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+ - **Curated by:** ArcelorMittal and DaSCI (Andalusian Research Institute in Data Science and Computational Intelligence)
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+
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+ - **Funded by:** ArcelorMittal
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+
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+ - **Shared by:** Harpreet Sahota
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+
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+ - **Language(s) (NLP):** en
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+
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+ - **Dataset License:** MIT License
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+
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+ ### Dataset Sources
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+
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+
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+ - **Repository:** https://github.com/ari-dasci/OD-MetalDAM
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+
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+
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+ ## Uses
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+
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+ ### Direct Use
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+
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+ The OD_MetalDAM dataset is intended for:
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+
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+ 1. **Semantic Segmentation Model Training**: Train deep learning models to automatically segment and classify different metallurgical phases in SEM images
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+
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+ 2. **Quality Control in Additive Manufacturing**: Develop automated inspection systems for detecting defects and analyzing microstructure quality
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+
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+ 3. **Materials Science Research**: Study phase distributions, grain boundaries, and microstructural features in metal alloys
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+
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+ 4. **Computer Vision Algorithm Development**: Benchmark and evaluate segmentation algorithms on high-resolution microscopy data
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+
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+ 5. **Educational Purposes**: Teach materials characterization and computer vision techniques in metallurgy
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+
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+ 6. **Transfer Learning**: Pre-train models for other microscopy or materials science applications
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+
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+ ### Out-of-Scope Use
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+
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+ This dataset should NOT be used for:
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+
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+ 1. **Medical diagnosis or healthcare applications**: The dataset is specific to metal microstructures and not suitable for biological or medical imaging
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+
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+ 2. **Real-time production monitoring**: With only 42 samples, the dataset may not capture all possible variations in production environments
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+
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+ 3. **Other material types**: The dataset is specific to metal alloys from additive manufacturing and may not generalize to ceramics, polymers, or composites
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+
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+ 4. **Macro-scale defect detection**: The dataset focuses on microstructural features and is not suitable for detecting large-scale manufacturing defects
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+
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+ 5. **Standalone production decisions**: Models trained on this dataset should be validated with domain experts before deployment in critical manufacturing processes
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+
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+ ## Dataset Structure
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+
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+
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+ Each sample in the dataset contains:
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+
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+ ### Image Data
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+
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+ - **filepath**: Path to the cropped SEM micrograph (JPEG format)
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+
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+ - **mask**: Semantic segmentation mask (PNG format) with pixel values corresponding to class labels
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+
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+ ### Segmentation Classes
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+
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+ - **0 - Matrix**: Background matrix material (base metal structure)
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+
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+ - **1 - Austenite**: Austenite phase regions
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+
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+ - **2 - Martensite/Austenite**: Mixed or transitional phase regions
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+
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+ - **3 - Precipitate**: Precipitate particles and inclusions
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+
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+ - **4 - Defect**: Defects, voids, and artifacts
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+
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+ ### Metadata Fields
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+
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+ - **micron_bar**: Scale bar value in micrometers (μm)
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+
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+ - **magnification**: SEM magnification level (5000x, 10000x, or 15000x)
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+
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+ - **label0_pixels**: Pixel count for Matrix phase
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+
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+ - **label1_pixels**: Pixel count for Austenite phase
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+
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+ - **label2_pixels**: Pixel count for Martensite/Austenite phase
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+
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+ - **label3_pixels**: Pixel count for Precipitate phase
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+
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+ - **label4_pixels**: Pixel count for Defect phase
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+
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+ - **total_pixels**: Total image pixels after cropping
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+
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+ ### Image Specifications
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+
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+ - **Resolution**: Varies between 1024×703 and 1280×895 pixels (after cropping)
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+
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+ - **Format**: JPEG for images, PNG for segmentation masks
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+
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+ - **Color**: Grayscale SEM images, color-coded segmentation masks
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+
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+ ## Dataset Creation
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+
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+ ### Curation Rationale
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+
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+ The OD_MetalDAM dataset was created to address several critical challenges in additive manufacturing and materials science:
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+
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+ 1. **Automation Need**: Manual analysis of microstructures is time-consuming and subject to human error
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+
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+ 2. **Quality Assurance**: Additive manufacturing processes require rigorous quality control to ensure material properties
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+
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+ 3. **Standardization**: Provide a benchmark dataset for developing and comparing computer vision algorithms in metallography
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+
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+ 4. **Research Advancement**: Enable machine learning research in materials characterization
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+
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+ 5. **Industrial Application**: Bridge the gap between academic research and industrial quality control needs
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+
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+ ### Source Data
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+
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+ #### Data Collection and Processing
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+
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+
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+ The data collection and processing pipeline involved:
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+
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+ 1. **Sample Preparation**: Metal samples from additive manufacturing processes were prepared using standard metallographic techniques
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+
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+ 2. **SEM Imaging**: High-resolution images captured using scanning electron microscopy at multiple magnifications
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+
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+ 3. **Expert Annotation**: Metallurgists and materials scientists manually annotated each image to identify different phases
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+
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+ 4. **Data Preprocessing**:
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+ - Original images contained information bands that were cropped out
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+ - Segmentation masks were generated with consistent color coding
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+ - Metadata was extracted and stored in SQL database format
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+ 5. **Quality Control**: Each annotation was reviewed for accuracy and consistency
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+
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+ 6. **Format Conversion**: Data converted to FiftyOne-compatible format for easy access and visualization
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+
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+ #### Who are the source data producers?
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+
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+ The source data was produced by:
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+ - **ArcelorMittal**: Global steel manufacturing company providing metal samples and domain expertise
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+
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+ - **DaSCI (Andalusian Research Institute)**: Research institute providing computer vision and data science expertise
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+
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+ - **Materials Scientists**: Expert metallurgists who performed the microscopy and initial analysis
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+
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+ - **Research Engineers**: Technical staff who prepared samples and operated SEM equipment
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+
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+ ### Annotations
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+
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+
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+ #### Annotation process
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+
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+ The annotation process followed these steps:
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+
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+ 1. **Initial Segmentation**: Expert metallurgists manually segmented each SEM image using specialized image analysis software
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+
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+ 2. **Phase Identification**: Each region was classified into one of five categories based on visual characteristics and domain knowledge
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+
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+ 3. **Pixel-level Precision**: Annotations were performed at pixel level to capture fine grain boundaries and small features
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+
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+ 4. **Validation**: Multiple experts reviewed annotations for consistency
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+
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+ 5. **Color Coding**: Segmentation masks were generated with consistent color mapping for visualization
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+
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+ #### Who are the annotators?
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+
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+ Annotations were created by:
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+
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+ - Professional metallurgists with expertise in additive manufacturing
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+
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+ - Materials science researchers from DaSCI and ArcelorMittal
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+
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+ - Domain experts with specific knowledge of steel microstructures and phase identification
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+
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+ #### Personal and Sensitive Information
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+
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+ The dataset does not contain any personal, sensitive, or private information. All data consists of:
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+
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+ - Technical microscopy images of metal samples
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+
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+ - Scientific measurements and metadata
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+
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+ - No human subjects or personal identifiers
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+
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+ - No location-specific or proprietary process information
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+
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+ ## Bias, Risks, and Limitations
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+
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+ ### Technical Limitations
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+
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+ 1. **Limited Sample Size**: With 42 samples, the dataset may not capture all possible microstructural variations
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+
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+ 2. **Specific Material System**: Dataset focuses on specific steel alloys used in additive manufacturing
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+
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+ 3. **Magnification Range**: Limited to 5,000x-15,000x magnification, may not capture nano-scale or macro-scale features
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+
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+ 4. **2D Representation**: SEM images provide 2D views of 3D microstructures
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+
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+ ### Potential Biases
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+
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+ 1. **Manufacturing Process**: Samples may be biased toward specific additive manufacturing techniques
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+
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+ 2. **Material Composition**: Limited to certain alloy compositions used by ArcelorMittal
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+
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+ 3. **Quality Distribution**: May not represent the full spectrum of quality variations in production
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+
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+ ### Risks
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+
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+ 1. **Overfitting**: Small dataset size increases risk of model overfitting
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+
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+ 2. **Domain Shift**: Models may not generalize to different alloys, manufacturing processes, or imaging conditions
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+
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+ 3. **Annotation Subjectivity**: Some phase boundaries may be ambiguous and subject to expert interpretation
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+
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+ ### Recommendations
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+
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+ Users should be made aware of the risks, biases and limitations of the dataset. Recommendations include:
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+
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+ 1. **Data Augmentation**: Apply appropriate augmentation techniques to increase training data diversity
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+
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+ 2. **Transfer Learning**: Use pre-trained models and fine-tune on this dataset for better performance
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+
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+ 3. **Domain Validation**: Validate models on independent datasets from your specific application domain
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+
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+ 4. **Expert Review**: Have domain experts review model predictions before deployment
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+
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+ 5. **Ensemble Methods**: Combine multiple models to improve robustness
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+
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+ 6. **Continuous Learning**: Update models as more data becomes available from production environments
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+
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+ 7. **Cross-validation**: Use appropriate cross-validation strategies given the limited sample size
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+
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+
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+ ## Glossary
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+
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+ - **SEM**: Scanning Electron Microscopy - High-resolution imaging technique for surface analysis
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+
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+ - **Austenite**: Face-centered cubic crystal structure phase of steel
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+
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+ - **Martensite**: Body-centered tetragonal crystal structure formed by rapid cooling
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+
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+ - **Precipitate**: Secondary phase particles that form within the metal matrix
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+
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+ - **Matrix**: Primary continuous phase in the microstructure
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+
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+ - **Additive Manufacturing**: 3D printing process for metals using layer-by-layer deposition
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+
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+ - **Microstructure**: Microscopic structure of a material revealing grains, phases, and defects
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+
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+ - **Magnification**: Degree of enlargement of the microscope image
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+
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+ - **Micron Bar**: Scale reference showing actual size in micrometers (μm)
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+
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+ ## More Information
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+
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+ For additional information about the dataset:
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+
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+ - **GitHub Repository**: https://github.com/ari-dasci/OD-MetalDAM
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+
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+ - **FiftyOne Documentation**: https://docs.voxel51.com/
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+
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+ - **Materials Science Background**: Consult metallography textbooks and additive manufacturing literature
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+
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+ - **Technical Support**: Open issues on the GitHub repository
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+
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+ ## Dataset Card Authors
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+
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+ - Harpreet Sahota - Dataset conversion to FiftyOne format and Hugging Face integration
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+ - Original dataset creators from ArcelorMittal and DaSCI
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+
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+ ## 📖 Citation
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+
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+ If you use this dataset in your research, please cite:
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+
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+ **BibTeX:**
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+
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+ ```bibtex
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+ @misc{metaldam2024,
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+ title={MetalDAM: Metallography Dataset from Additive Manufacturing},
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+ author={{ArcelorMittal} and {DaSCI Andalusian Research Institute}},
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+ year={2024},
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+ url={https://github.com/ari-dasci/OD-MetalDAM},
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+ note={FiftyOne dataset available at: https://huggingface.co/datasets/Voxel51/OD_MetalDAM}
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+ }
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+ ```
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+
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+ **APA:**
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+
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+ ArcelorMittal & DaSCI Andalusian Research Institute. (2024). *MetalDAM: Metallography Dataset from Additive Manufacturing* [Data set]. GitHub. https://github.com/ari-dasci/OD-MetalDAM
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+
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+
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+ ## 📄 License
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+
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+ The dataset is licensed under the MIT License, but the code is licensed under the Apache-2.0 License - see the [LICENSE](LICENSE) file for details.
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+
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+ ## 👥 Authors
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+
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+ - **Original Dataset**: ArcelorMittal & DaSCI Andalusian Research Institute
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+ - **FiftyOne Integration**: Harpreet Sahota
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+
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+ ## 🙏 Acknowledgments
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+
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+ - ArcelorMittal for providing the metallography images and domain expertise
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+ - DaSCI Andalusian Research Institute for dataset curation and annotation
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+ - FiftyOne team for the excellent visualization framework
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+
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+ ---
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+
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+ **Note**: This dataset is intended for research and educational purposes in materials science and computer vision. For production use, please validate models with domain experts.
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  • Pointer size: 131 Bytes
  • Size of remote file: 752 kB
data/micrograph18.jpg ADDED

Git LFS Details

  • SHA256: caa86399a4f0ae66a1ce322ac315f0cb63acf87cc9465df317828f4b39094437
  • Pointer size: 131 Bytes
  • Size of remote file: 680 kB
data/micrograph19.jpg ADDED

Git LFS Details

  • SHA256: 91f4f5aaa80d803797b156aea99de6f0c982a894e5e3792e891196e00ce9ad93
  • Pointer size: 131 Bytes
  • Size of remote file: 787 kB
data/micrograph2.jpg ADDED

Git LFS Details

  • SHA256: b7d16fe9c218ea3457586ef182c810449094a2b22004a3eae6d34c4f208877d8
  • Pointer size: 131 Bytes
  • Size of remote file: 754 kB
data/micrograph20.jpg ADDED

Git LFS Details

  • SHA256: e6fcf46d73409182a7f0476d120df30369ad21e58a94335ce0ed7acda077885d
  • Pointer size: 131 Bytes
  • Size of remote file: 697 kB
data/micrograph21.jpg ADDED

Git LFS Details

  • SHA256: 0fce615c8188b53210119fa6a0a5569d8adc4a2a064bc336d191273a0a3f273a
  • Pointer size: 131 Bytes
  • Size of remote file: 739 kB
data/micrograph22.jpg ADDED

Git LFS Details

  • SHA256: e61373cd0a2dbcb4b805c49baea2990dfa566bbb8d98ebdb5b489b08c3161540
  • Pointer size: 132 Bytes
  • Size of remote file: 1.04 MB
data/micrograph23.jpg ADDED

Git LFS Details

  • SHA256: 56995ed68d06dbafa47b0c0aa304720706b6a56c0ac32fd2861ff42cef9d3f56
  • Pointer size: 131 Bytes
  • Size of remote file: 660 kB
data/micrograph24.jpg ADDED

Git LFS Details

  • SHA256: 6e4ba18c2951a47644dd0e3b7dc6bc4edda4019c7a8d0b4bb6461a5dc58b2bdb
  • Pointer size: 131 Bytes
  • Size of remote file: 679 kB
data/micrograph25.jpg ADDED

Git LFS Details

  • SHA256: 05d71b913e2a70b0365bf336fd4dc3a334c4767090aceba308d32bbcd71dcc6d
  • Pointer size: 131 Bytes
  • Size of remote file: 691 kB
data/micrograph26.jpg ADDED

Git LFS Details

  • SHA256: 9cdc5e20fd2a82b2c9986a536b80298aed2e05ba7dc931a0bda7c1f093da61ba
  • Pointer size: 131 Bytes
  • Size of remote file: 591 kB
data/micrograph27.jpg ADDED

Git LFS Details

  • SHA256: 2d427020f4057882861685d088892f8506aea3d6d597ef93c56c3f4460086a6f
  • Pointer size: 131 Bytes
  • Size of remote file: 673 kB
data/micrograph28.jpg ADDED

Git LFS Details

  • SHA256: 65b532b023811630cc6fedb042b38852c598f18c4ee0950b716e3204030e4623
  • Pointer size: 131 Bytes
  • Size of remote file: 662 kB
data/micrograph29.jpg ADDED

Git LFS Details

  • SHA256: b4d41cac520932c2282be3b2e471c6135168dcdec2440e7939c555c08b71c088
  • Pointer size: 131 Bytes
  • Size of remote file: 702 kB
data/micrograph3.jpg ADDED

Git LFS Details

  • SHA256: 0416d24dab51b289d57db793252d5e4e917229beb612b23aaea841379580f5e2
  • Pointer size: 131 Bytes
  • Size of remote file: 739 kB
data/micrograph30.jpg ADDED

Git LFS Details

  • SHA256: f7bafa56bae1c6f2a69f91e833265e045ffe01768bad1451daa4d5bf488c5464
  • Pointer size: 131 Bytes
  • Size of remote file: 685 kB
data/micrograph31.jpg ADDED

Git LFS Details

  • SHA256: 1a59ac5f9144529fe441b4b974557f36d3afef6161623fdbc36ca4f659504b95
  • Pointer size: 131 Bytes
  • Size of remote file: 710 kB
data/micrograph32.jpg ADDED

Git LFS Details

  • SHA256: 27b50bd52d33dd3129a97e2d386cf4c1ac3a0c144eef04a9790e73d24ba7bcba
  • Pointer size: 131 Bytes
  • Size of remote file: 968 kB
data/micrograph33.jpg ADDED

Git LFS Details

  • SHA256: 0bb6a0af8af7d92f1abf3b7d09e6cc0cdee5b44b95e76295d6d6ee349abe129d
  • Pointer size: 131 Bytes
  • Size of remote file: 872 kB
data/micrograph34.jpg ADDED

Git LFS Details

  • SHA256: aca42d7416db31ec2b7f07c6a57ac3d580d2db7d9cddaa024294cbe5d57a7d58
  • Pointer size: 131 Bytes
  • Size of remote file: 588 kB
data/micrograph35.jpg ADDED

Git LFS Details

  • SHA256: 4b7e1c60cccf530f24e9801ca977400c98417e8cbdd6ddc5e824f90ddbb8763a
  • Pointer size: 131 Bytes
  • Size of remote file: 672 kB
data/micrograph36.jpg ADDED

Git LFS Details

  • SHA256: 83663713e8b196c70ecf6ce3dce9e751395130f66a0c4775d67395de310db71c
  • Pointer size: 131 Bytes
  • Size of remote file: 749 kB
data/micrograph37.jpg ADDED

Git LFS Details

  • SHA256: 7a5f6ee9c8a1b0beaa80519d1bbf2268c30d4eaf2a3ef6846b972d0b0722b545
  • Pointer size: 131 Bytes
  • Size of remote file: 680 kB
data/micrograph38.jpg ADDED

Git LFS Details

  • SHA256: 341fa3c8c4e4b74bff1800cb80ea33687471f1007d1054865cfd37a6f9841a35
  • Pointer size: 131 Bytes
  • Size of remote file: 696 kB
data/micrograph39.jpg ADDED

Git LFS Details

  • SHA256: 82bfd6da6a4a166d782d4ea18e110498374399b9281a453a0210a4ca0e95ce86
  • Pointer size: 131 Bytes
  • Size of remote file: 692 kB
data/micrograph4.jpg ADDED

Git LFS Details

  • SHA256: 69f33824bf7d96330bec28115e9b061f04e814cc3dc7f668eed60f2dba12af7a
  • Pointer size: 131 Bytes
  • Size of remote file: 698 kB
data/micrograph40.jpg ADDED

Git LFS Details

  • SHA256: 81b119c9e709ce5f88a08572e87c676447ad0d93f7a622f1231e9157ea31de54
  • Pointer size: 131 Bytes
  • Size of remote file: 691 kB
data/micrograph41.jpg ADDED

Git LFS Details

  • SHA256: e1bcd1f1d5a92dffb08895f040689774c6a4a4501a5530d1ce788b7f260d3759
  • Pointer size: 131 Bytes
  • Size of remote file: 854 kB
data/micrograph5.jpg ADDED

Git LFS Details

  • SHA256: 1b0222d73c87d3ea5d80bc2db407816c6f97255c2c372f7a3d392a9834183da6
  • Pointer size: 131 Bytes
  • Size of remote file: 668 kB
data/micrograph6.jpg ADDED

Git LFS Details

  • SHA256: 35a2f5280d8a2790dbc5437b06fac0c8a15aea42ad426c2061958521d8d94025
  • Pointer size: 131 Bytes
  • Size of remote file: 680 kB
data/micrograph7.jpg ADDED

Git LFS Details

  • SHA256: b5d345279db2a2e4ea4cb651b409b3766498cb8bdcc9c64938e40a1a2c011de9
  • Pointer size: 131 Bytes
  • Size of remote file: 591 kB
data/micrograph8.jpg ADDED

Git LFS Details

  • SHA256: 631d6aab19c341606d9002a7b9a590235f5a53d4b9958562230eedacf19bd9d7
  • Pointer size: 132 Bytes
  • Size of remote file: 1.1 MB
data/micrograph9.jpg ADDED

Git LFS Details

  • SHA256: c0d7af616bdf1818e066ad4d8e558e034a4a81c5656545e61ea9231c2242f124
  • Pointer size: 131 Bytes
  • Size of remote file: 778 kB
fields/mask/micrograph0.png ADDED

Git LFS Details

  • SHA256: 22884dbfd323bcbf2b5672b52d8d795f18d5b683695bfb6c1aa3f52b91a96dde
  • Pointer size: 130 Bytes
  • Size of remote file: 45 kB
fields/mask/micrograph1.png ADDED

Git LFS Details

  • SHA256: 0df47d00547436c9875864ead57f260d3c2e471f235639d608654121739308b3
  • Pointer size: 130 Bytes
  • Size of remote file: 51.8 kB
fields/mask/micrograph10.png ADDED

Git LFS Details

  • SHA256: 8cd453eae3f1a4f8f3143dce03f9458a4061b3b74e6b3b965ae36b6bcfdce0e0
  • Pointer size: 130 Bytes
  • Size of remote file: 44.1 kB
fields/mask/micrograph11.png ADDED

Git LFS Details

  • SHA256: a2db4ea855d2c78ee3afbb886441312fb53c3905e2c727a31f148cf41ce4e4a1
  • Pointer size: 130 Bytes
  • Size of remote file: 50.4 kB
fields/mask/micrograph12.png ADDED

Git LFS Details

  • SHA256: 648bba67ad390b653b8ac8af125d9edfffea543a146bd1a0fd99edf50a75d96b
  • Pointer size: 130 Bytes
  • Size of remote file: 49.8 kB
fields/mask/micrograph13.png ADDED

Git LFS Details

  • SHA256: 3d1486727631e22caa4ae3d469179df507f57e6baed0504806adc83e43535316
  • Pointer size: 130 Bytes
  • Size of remote file: 48 kB