Titlebook: Artificial Intelligence Oceanography; Xiaofeng Li,Fan Wang Book‘‘‘‘‘‘‘‘ 2023 The Editor(s) (if applicable) and The Author(s) 2023 Open Acc

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Explorations in Mathematical Physicsven the surface limitation of remote sensing techniques and expenses of in-situ observations, the sparse information of the ocean’s three-dimensional structure has hindered the studies about the global ocean. In this chapter, a neural network (NN) is described, which is capable to learn the relation

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Explorations in Mathematical Physicsddies have signals on sea surface height (SSH) images, sea surface temperature (SST) images. Previous studies developed automatic eddy identification methods based on SSH or SST. However, single remote sensing data cannot adequately characterize mesoscale eddies. To improve the accuracy and efficien

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Variational Calculus and Field Theory,ct coastal inundation from multi-temporal and dual-polarimetric SAR data with good and robust performance. Two specially-designed adaptations for SAR image flooding mapping are included in the SARCFMNet model: (1) radar remote sensing physics-driven input information design; and (2) regularization s

反復(fù)無常

https://doi.org/10.1007/978-0-387-32793-8-Net. The encoder is a ResNet-34 model. The position and channel attention modules are integrated into the DAU-Net to improve performance. The Sentinel-1A SAR images are used as experimental data. The model’s input contains three channels: VV polarized information, VH polarized information, and the

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The Elegance and Power of Tensor Notation, Based on the 1,055/4,071 pairs of labelled samples, the model reached an accuracy of 97.51 (99.83)% and an Intersection over Union (IoU) of 42.62 (88.09)% for the MODIS (SAR) images. We processed satellite images containing . using the DL model and drew an exciting finding: since SAR (MODIS) detect

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Variational Calculus and Field Theory,ing operations such as grey-value thresholding due to speckle noise. Both the signal returned from the sea surface and the exposed tidal flats vary drastically from different sea conditions. This chapter develops an automatic method for extracting the waterline accurately and efficiently from Sentin