Data Augmentation Guided Decouple Knowledge Distillation for Low-Resolution Fine-Grained Image Classification
ICLR 2024(2024)
MS student
Abstract
Continuous development of convolutional neural networks has shown good performance for fine-grained image classification by identifying fine features in high-resolution images.However, in the real world, many images are due to camera or environmental restrictions. Low resolution images with fewer fine features result in a dramatic reduction in classification accuracy.In this study, a twophase Data Augmentation guided Decoupled Knowledge Distillation (DADKD) framework is proposed to improve classification accuracy for low-resolution images.In the proposed DADKD, one phase is data augmentation that generates a composite image and corresponding labels. Another stage is knowledge distillation, which minimizes differences between high-resolution and low-resolution image features. The proposed DADKD validated on three fine-grained datasets (i.e Stanford-Cars, FGVC-Aircraft, and CUB-200-2011 datasets). Experimental results show that our proposed DADKD achieves 88.19%, 78.98% and 80.33% classification accuracy on these three datasets, state-of-the-art methods such as SnapMix and Decoupled Knowledge Distillation (DKD).The method proposes a viable solution for fine-grained classification at low resolution.
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Key words
Data augmentation/Knowledge Distillation/low-resolution/fine-grained image classification
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