Guoyong Wu

Mr. Guoyong Wu

orcid

Research Focus & Metrics

Academic Career Length

3Years (2024-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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18 August 2024 in Expert Systems with Applications
Verified
Journal Article
Closed access
GWGuoyong Wu
Guoyong Wu
Mohammed A. A. Al-qanessMohammed A. A. Al-qaness
Mohammed A. A. Al-qaness
DADalal AL-Alimi
Dalal AL-Alimi
ADAbdelghani Dahou
Abdelghani Dahou
Mohamed Abd ElazizMohamed Abd Elaziz
Mohamed Abd Elaziz
AEAhmed Ewees
Ahmed Ewees

8 August 2024 in Remote Sensing
Verified
Journal Article
Open access
PDF file
Mohammed A. A. Al-qanessMohammed A. A. Al-qaness
Mohammed A. A. Al-qaness
GWGuoyong Wu
Guoyong Wu
DADalal AL-Alimi
Dalal AL-Alimi
The vision transformer (ViT) has demonstrated performance comparable to that of convolutional neural networks (CNN) in the hyperspectral image classification domain. This is achieved by transforming images into sequence data and mining global spectral-spatial information to establish remote dependencies. Nevertheless, both the ViT and CNNs have their own limitations. For instance, a CNN is constrained by the extent of its receptive field, which prevents it from fully exploiting global spatial-spectral features. Conversely, the ViT is prone to excessive distraction during the feature extraction process. To be able to overcome the problem of insufficient feature information extraction caused using by a single paradigm, this paper proposes an MLP-mixer and a graph convolutional enhanced transformer (MGCET), whose network consists of a spatial-spectral extraction block (SSEB), an MLP-mixer, and a graph convolutional enhanced transformer (GCET). First, spatial-spectral features are extracted using SSEB, and then local spatial-spectral features are fused with global spatial-spectral features by the MLP-mixer. Finally, graph convolution is embedded in multi-head self-attention (MHSA) to mine spatial relationships and similarity between pixels, which further improves the modeling capability of the model. Correlation experiments were conducted on four different HSI datasets. The MGEET algorithm achieved overall accuracies (OAs) of 95.45%, 97.57%, 98.05%, and 98.52% on these datasets.