2022
DOI: 10.48550/arxiv.2202.05988
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RSINet: Inpainting Remotely Sensed Images Using Triple GAN Framework

Abstract: We tackle the problem of image inpainting in the remote sensing domain. Remote sensing images possess high resolution and geographical variations, that render the conventional inpainting methods less effective. This further entails the requirement of models with high complexity to sufficiently capture the spectral, spatial and textural nuances within an image, emerging from its high spatial variability. To this end, we propose a novel inpainting method that individually focuses on each aspect of an image such … Show more

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“…Peter, P. proposed a mask optimization network for data optimization in spatial picture-in-picture, with the improvement that a generator and a corresponding optimization network can be jointly trained, with the effect of accurately reflecting the image, achieving a breakthrough in quality and speed. Kumar, A. et al proposed a new patching approach that can use GAN to focus on each aspect of image features, such as color and shape individually, and was validated in two datasets, achieving competitive performance [12]. Jam, J. et al designed a loss model employing two encoders and proposed a recursive residual transition layer that achieved some technical progress in terms of bias and quality for image repair, which was well generalized on a stationary dataset [13].…”
Section: Introductionmentioning
confidence: 99%
“…Peter, P. proposed a mask optimization network for data optimization in spatial picture-in-picture, with the improvement that a generator and a corresponding optimization network can be jointly trained, with the effect of accurately reflecting the image, achieving a breakthrough in quality and speed. Kumar, A. et al proposed a new patching approach that can use GAN to focus on each aspect of image features, such as color and shape individually, and was validated in two datasets, achieving competitive performance [12]. Jam, J. et al designed a loss model employing two encoders and proposed a recursive residual transition layer that achieved some technical progress in terms of bias and quality for image repair, which was well generalized on a stationary dataset [13].…”
Section: Introductionmentioning
confidence: 99%