<p>Hawthorn is a well-known economic crop widely recognized for its efficacy in cardiovascular protection and blood pressure reduction. However, accurately identifying Hawthorn varieties, which arise from diverse cultivation conditions, poses a significant challenge in species authentication. To address this challenge, we introduce a visual feature-based method for Hawthorn identification. Specifically, we propose a multi-scale hybrid deep learning model to capture and merge both local and global features of Hawthorn images. Our model incorporates shallow prior and high-level semantic information, thereby enhancing classification precision. Furthermore, to improve the model ability to recognize local details in fine-grained images, we propose a novel spatial local attention mechanism. The loss functions are designed to reduce the low-frequency features in the fine-grained image. Extensive experiments conducted on our Hawthorn dataset, as well as two public datasets, demonstrate that our model outperforms state-of-the-art methods.</p>

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

Visual feature-based multi-scale hybrid attention network for fine-grained Hawthorn varieties identification

  • Chaoqun Tan,
  • Jiale Deng,
  • Chunjie Wu,
  • Maojia Wang,
  • Li Ke

摘要

Hawthorn is a well-known economic crop widely recognized for its efficacy in cardiovascular protection and blood pressure reduction. However, accurately identifying Hawthorn varieties, which arise from diverse cultivation conditions, poses a significant challenge in species authentication. To address this challenge, we introduce a visual feature-based method for Hawthorn identification. Specifically, we propose a multi-scale hybrid deep learning model to capture and merge both local and global features of Hawthorn images. Our model incorporates shallow prior and high-level semantic information, thereby enhancing classification precision. Furthermore, to improve the model ability to recognize local details in fine-grained images, we propose a novel spatial local attention mechanism. The loss functions are designed to reduce the low-frequency features in the fine-grained image. Extensive experiments conducted on our Hawthorn dataset, as well as two public datasets, demonstrate that our model outperforms state-of-the-art methods.