GLDFN, a dual-branch network with global and local dynamic filters, slightly improves blind super-resolution on several synthetic and real benchmarks, but its two-class degradation taxonomy is only partially confirmed by its own ablations.
DyNet: Dynamic Convolution for Accelerating Convolutional Neural Networks
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abstract
Convolution operator is the core of convolutional neural networks (CNNs) and occupies the most computation cost. To make CNNs more efficient, many methods have been proposed to either design lightweight networks or compress models. Although some efficient network structures have been proposed, such as MobileNet or ShuffleNet, we find that there still exists redundant information between convolution kernels. To address this issue, we propose a novel dynamic convolution method to adaptively generate convolution kernels based on image contents. To demonstrate the effectiveness, we apply dynamic convolution on multiple state-of-the-art CNNs. On one hand, we can reduce the computation cost remarkably while maintaining the performance. For ShuffleNetV2/MobileNetV2/ResNet18/ResNet50, DyNet can reduce 37.0/54.7/67.2/71.3% FLOPs without loss of accuracy. On the other hand, the performance can be largely boosted if the computation cost is maintained. Based on the architecture MobileNetV3-Small/Large, DyNet achieves 70.3/77.1% Top-1 accuracy on ImageNet with an improvement of 2.9/1.9%. To verify the scalability, we also apply DyNet on segmentation task, the results show that DyNet can reduce 69.3% FLOPs while maintaining Mean IoU on segmentation task.
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Adaptive Blind Super-Resolution Network for Spatial-Specific and Spatial-Agnostic Degradations
GLDFN, a dual-branch network with global and local dynamic filters, slightly improves blind super-resolution on several synthetic and real benchmarks, but its two-class degradation taxonomy is only partially confirmed by its own ablations.