Infrared and Laser Engineering, Volume. 53, Issue 10, 20240215(2024)
BYOL-based self-supervised learning for hyperspectral image classification
Fig. 3. SSTN algorithm architecture. (a)
Fig. 4. Directional region generation in vertical direction. (a) Area scanned from top to bottom; (b) Area scanned from bottom to top; (c) Merged area in two directions; (d) Scanning performance example
Fig. 5. Superpixel clustering result map of Indian Pines dataset. (a) Original image; (b) Edge image; (c) Superpixel clustering image
Fig. 6. Indian Pines dataset. (a) Pseudo-color image; (b) Corresponding ground object type; (c) Number of sample sets
Fig. 7. University of Pavia dataset. (a) Pseudo-color image; (b) Corresponding ground object type; (c) Number of sample sets
Fig. 8. Salinas dataset. (a) Pseudo-color image; (b) Corresponding ground object type; (c) Number of sample sets
Fig. 9. Classification maps of different methods on Indian Pines dataset
Fig. 10. Classification maps of different methods on University of Pavia dataset
Fig. 11. Classification maps of different methods on Salinas dataset
Fig. 12. The impact of different ratios of pretraining samples on overall accuracy (OA)
Fig. 13. The effect of different number of superpixel blocks on OA on the Indian Pines dataset
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Xizhen HAN, Zhengang JIANG, Yuanyuan LIU, Jian ZHAO, Qiang SUN, Jianzhuo LIU. BYOL-based self-supervised learning for hyperspectral image classification[J]. Infrared and Laser Engineering, 2024, 53(10): 20240215
Category: 光谱学
Received: Jun. 10, 2024
Accepted: --
Published Online: Dec. 13, 2024
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