Orthophotomosaicing Framework for Thermal and Multispectral Images Collected with a UAV for Intelligent Systems
DOI:
https://doi.org/10.18372/1990-5548.84.20189Keywords:
machine learning, orthophotomosaicing, image processing, unmanned aerial vehicles, mine detectionAbstract
In this paper, a framework for orthophotomosaicing of multispectral and thermal images collected by unmanned aerial vehicles is presented. The proposed framework is based on a two-stage data preprocessing and mosaicing orthophotographic restoration of images captured with a route-planned unmanned aerial vehicle collection. The super-resolution and image restoration step is handled via a two-pathway U-net image restoration artificial neural network. The framework simplifies the process and makes the collected data less sensitive to noise via image restoration and upscaling steps. The framework was tested on visible, multispectral and thermal images and provides 3.5% and 5.34% improvements in peak signal-to-noise ratio for multispectral and thermal orthophotomosaics.
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