The advent of high-resolution satellite imagery has revolutionized remote sensing applications, offering unprecedented access and detail worldwide. However, the vast volume and complexity of this data pose significant challenges for traditional classification methods, necessitating advanced computational approaches. This research leverages the OpenEarthMap dataset, an extensive and diverse collection of high-resolution earth observation imagery, to improve landcover classification accuracy using deep learning techniques. We optimize a U-Net convolutional neural network architecture by analyzing different learning rates and variations on the OpenEarthMap dataset and choose this architecture because of its previous success in semantic segmentation tasks. Through a comprehensive methodology encompassing dataset preparation, preprocessing, network parameter experimentation, and model evaluation, this research seeks to push the boundaries of current landcover classification capabilities and contribute valuable insights to the field of remote sensing. Using a Unet on 3500 OpenEarthMap images, Adam optimizer, and image variation preprocessing, we found an f-score of 0.75, consistent with visual image interpretation. Future work involving additional images, a 4x image split implementation, and other models may improve this f-score and the associated semantic segmentation.
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