RS-vHeat: Heat Conduction Guided Efficient Remote Sensing Foundation Model

Fuente: arXiv
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Autori principali: Hu, Huiyang, Wang, Peijin, Bi, Hanbo, Tong, Boyuan, Wang, Zhaozhi, Diao, Wenhui, Chang, Hao, Feng, Yingchao, Zhang, Ziqi, Wang, Yaowei, Ye, Qixiang, Fu, Kun, Sun, Xian
Natura: Preprint
Pubblicazione: 2024
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author Hu, Huiyang
Wang, Peijin
Bi, Hanbo
Tong, Boyuan
Wang, Zhaozhi
Diao, Wenhui
Chang, Hao
Feng, Yingchao
Zhang, Ziqi
Wang, Yaowei
Ye, Qixiang
Fu, Kun
Sun, Xian
author_facet Hu, Huiyang
Wang, Peijin
Bi, Hanbo
Tong, Boyuan
Wang, Zhaozhi
Diao, Wenhui
Chang, Hao
Feng, Yingchao
Zhang, Ziqi
Wang, Yaowei
Ye, Qixiang
Fu, Kun
Sun, Xian
contents Remote sensing foundation models largely break away from the traditional paradigm of designing task-specific models, offering greater scalability across multiple tasks. However, they face challenges such as low computational efficiency and limited interpretability, especially when dealing with large-scale remote sensing images. To overcome these, we draw inspiration from heat conduction, a physical process modeling local heat diffusion. Building on this idea, we are the first to explore the potential of using the parallel computing model of heat conduction to simulate the local region correlations in high-resolution remote sensing images, and introduce RS-vHeat, an efficient multi-modal remote sensing foundation model. Specifically, RS-vHeat 1) applies the Heat Conduction Operator (HCO) with a complexity of $O(N^{1.5})$ and a global receptive field, reducing computational overhead while capturing remote sensing object structure information to guide heat diffusion; 2) learns the frequency distribution representations of various scenes through a self-supervised strategy based on frequency domain hierarchical masking and multi-domain reconstruction; 3) significantly improves efficiency and performance over state-of-the-art techniques across 4 tasks and 10 datasets. Compared to attention-based remote sensing foundation models, we reduce memory usage by 84\%, FLOPs by 24\% and improves throughput by 2.7 times. The code will be made publicly available.
format Preprint
id arxiv_https___arxiv_org_abs_2411_17984
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle RS-vHeat: Heat Conduction Guided Efficient Remote Sensing Foundation Model
Hu, Huiyang
Wang, Peijin
Bi, Hanbo
Tong, Boyuan
Wang, Zhaozhi
Diao, Wenhui
Chang, Hao
Feng, Yingchao
Zhang, Ziqi
Wang, Yaowei
Ye, Qixiang
Fu, Kun
Sun, Xian
Computer Vision and Pattern Recognition
Remote sensing foundation models largely break away from the traditional paradigm of designing task-specific models, offering greater scalability across multiple tasks. However, they face challenges such as low computational efficiency and limited interpretability, especially when dealing with large-scale remote sensing images. To overcome these, we draw inspiration from heat conduction, a physical process modeling local heat diffusion. Building on this idea, we are the first to explore the potential of using the parallel computing model of heat conduction to simulate the local region correlations in high-resolution remote sensing images, and introduce RS-vHeat, an efficient multi-modal remote sensing foundation model. Specifically, RS-vHeat 1) applies the Heat Conduction Operator (HCO) with a complexity of $O(N^{1.5})$ and a global receptive field, reducing computational overhead while capturing remote sensing object structure information to guide heat diffusion; 2) learns the frequency distribution representations of various scenes through a self-supervised strategy based on frequency domain hierarchical masking and multi-domain reconstruction; 3) significantly improves efficiency and performance over state-of-the-art techniques across 4 tasks and 10 datasets. Compared to attention-based remote sensing foundation models, we reduce memory usage by 84\%, FLOPs by 24\% and improves throughput by 2.7 times. The code will be made publicly available.
title RS-vHeat: Heat Conduction Guided Efficient Remote Sensing Foundation Model
topic Computer Vision and Pattern Recognition
url https://arxiv.org/abs/2411.17984