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README.md
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@@ -17,30 +17,37 @@ Labels: Binary classification — wildfire present or not.
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Images: Captured under real-world conditions, including diverse environments and challenging scenarios like smoke, clouds, and varying lighting.
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Size: ~33 000 image labeled images, well-suited for training and validation of computer vision models.
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- 28,103 images with smoke
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- 31,975 smoke instances
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This dataset is formatted to be compatible with the Ultralytics YOLO framework, enabling efficient training of object detection models.
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Usage: Ideal for fine-tuning state-of-the-art models for wildfire detection tasks.
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## Model Development Plan
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Model Choice: YOLOv11s
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Why YOLOv11s?
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Efficiency: YOLO (You Only Look Once) models are known for their high-speed performance and accuracy, ideal for real-time applications.
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Versatility: YOLOv11s builds upon prior versions, improving object detection, handling small objects, and performing well under challenging visual conditions.
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Frugality: Optimized for computational efficiency, aligning with the sustainability goals of the Frugal AI Challenge.
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## Data Preprocessing:
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Fine-Tuning YOLOv11:
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Load a pre-trained YOLOv11s model as a starting point (transfer learning).
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Replace the output layer to align with the binary classification task (wildfire vs. no wildfire).
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Train the model using the PyroNear/pyro-sdis dataset.
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## Evaluation:
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Precision and recall to assess detection accuracy.
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Inference time to evaluate real-time feasibility.
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Using CodeCarbon, the model's carbon footprint and energy consumption will be tracked, this information will help ensure the model's alignment with the sustainability objectives of the Frugal AI Challenge.
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Images: Captured under real-world conditions, including diverse environments and challenging scenarios like smoke, clouds, and varying lighting.
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Size: ~33 000 image labeled images, well-suited for training and validation of computer vision models.
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- 28,103 images with smoke
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- 31,975 smoke instances
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This dataset is formatted to be compatible with the Ultralytics YOLO framework, enabling efficient training of object detection models.
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Usage: Ideal for fine-tuning state-of-the-art models for wildfire detection tasks.
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## Model Development Plan
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Model Choice: YOLOv11s
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Why YOLOv11s?
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Efficiency: YOLO (You Only Look Once) models are known for their high-speed performance and accuracy, ideal for real-time applications.
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Versatility: YOLOv11s builds upon prior versions, improving object detection, handling small objects, and performing well under challenging visual conditions.
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Frugality: Optimized for computational efficiency, aligning with the sustainability goals of the Frugal AI Challenge.
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## Data Preprocessing:
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Fine-Tuning YOLOv11:
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Load a pre-trained YOLOv11s model as a starting point (transfer learning).
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Replace the output layer to align with the binary classification task (wildfire vs. no wildfire).
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Train the model using the PyroNear/pyro-sdis dataset.
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## Evaluation:
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Metrics:
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Precision and recall to assess detection accuracy.
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Inference time to evaluate real-time feasibility.
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Using CodeCarbon, the model's carbon footprint and energy consumption will be tracked, this information will help ensure the model's alignment with the sustainability objectives of the Frugal AI Challenge.
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## Results:
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Since evaluation of this challenge is on 20% of the train dataset, we need to be vigilant when talking about model performance.
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Indeed, a high accuracy in the part of the train dataset could hide the over-fitting of the model.
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That is what I've been dealing with when reaching 0.91 accuracy of the model and 0.81 mean_iou on the train dataset:
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I can see over-fitting while over-performance on the train dataset (see picture below) - model is used for submission and is called yolo11_tr_20012025_frugalAIchal.pt
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As a data scientist, another model has been trained and evaluated on the whole "val" dataset.
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