FPDANet combines a ResNet backbone with dual attention and bilateral feature fusion to reach 91.05% top-1 accuracy on 21 fetal ultrasound view classes, but the architecture reuses known modules without citation and the evaluation lacks code, data, and error bars.
$ShiftwiseConv:$ Small Convolutional Kernel with Large Kernel Effect
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abstract
Large kernels make standard convolutional neural networks (CNNs) great again over transformer architectures in various vision tasks. Nonetheless, recent studies meticulously designed around increasing kernel size have shown diminishing returns or stagnation in performance. Thus, the hidden factors of large kernel convolution that affect model performance remain unexplored. In this paper, we reveal that the key hidden factors of large kernels can be summarized as two separate components: extracting features at a certain granularity and fusing features by multiple pathways. To this end, we leverage the multi-path long-distance sparse dependency relationship to enhance feature utilization via the proposed Shiftwise (SW) convolution operator with a pure CNN architecture. In a wide range of vision tasks such as classification, segmentation, and detection, SW surpasses state-of-the-art transformers and CNN architectures, including SLaK and UniRepLKNet. More importantly, our experiments demonstrate that $3 \times 3$ convolutions can replace large convolutions in existing large kernel CNNs to achieve comparable effects, which may inspire follow-up works. Code and all the models at https://github.com/lidc54/shift-wiseConv.
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FPDANet: A Multi-Section Classification Model for Intelligent Screening of Fetal Ultrasound
FPDANet combines a ResNet backbone with dual attention and bilateral feature fusion to reach 91.05% top-1 accuracy on 21 fetal ultrasound view classes, but the architecture reuses known modules without citation and the evaluation lacks code, data, and error bars.