3260 papers • 126 benchmarks • 313 datasets
As a remote sensing image processing task, Pan-sharpening aims to increase the spatial resolution of the low-resolution multispectral image with the guidance of the corresponding panchromatic image.
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This paper proposes a full-resolution training framework for deep learning-based pansharpening, which is fully general and can be used for any deep learning -based pansHarpening model, and defines a suitable two-component loss to ensure spectral and spatial fidelity.
This paper designs a new detail injection based convolutional neural network (DiCNN) framework for pansharpening with the MS details being directly formulated in end-to-end manners, where the first detail injections based CNN mines MS details through the PAN image and the MS image, and the second one utilizes only the PAN picture.
A new self-supervised learning framework is proposed, where pansharpening is treated as a colorization problem, which brings an entirely novel perspective and solution to the problem compared with the existing methods that base their solution solely on producing a super-resolution version of the multispectral image.
A guided deep decoder network is proposed as a general prior that can achieve state-of-the-art performance in various image fusion problems and allows the network parameters to be optimized in an unsupervised way without training data.
A pyramid based deep fusion framework that preserves spectral and spatial characteristics at different scales and outperforms state of the art pansharpening models is proposed.
This paper proposes a side information partially guided convolutional sparse coding (SCSC) model for pansharpening, generalized as a deep neural network, called as SCSC panshARPening neural network ( SCSC-PNN).
An index combining methodology has been developed, which enables the detection of plastic objects by exploiting spectra derived from the pan-sharpened hyperspectral images, and successfully detected the plastic targets and differentiated them from other materials.
This article proposes a novel unsupervised DL-based S2 sharpening method using a single convolutional neural network (CNN) to sharpen the 20 and 60 m bands at the same time at full resolution.
A novel over-complete network, called HyperKite, which focuses on learning high-level features by constraining the receptive from increasing in the deep layers is proposed, which demonstrates the superiority of the DIP-HyperKite over the state-of-the-art pansharpening methods.
This work proposes an alternative no-reference full-resolution assessment framework, and introduces a protocol, namely the reprojection protocol, to take care of the spectral consistency issue and a new index of the spatial consistency between the pansharpened image and the panchromatic band at full resolution.
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