A bi-residual network with intra-layer shortcuts and multi-scale convolutions improves synchronous motor fault diagnosis accuracy on low-resolution noisy data by about 1 to 3 percent over ResNet18.
High Frequency Residual Learning for Multi-Scale Image Classification
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abstract
We present a novel high frequency residual learning framework, which leads to a highly efficient multi-scale network (MSNet) architecture for mobile and embedded vision problems. The architecture utilizes two networks: a low resolution network to efficiently approximate low frequency components and a high resolution network to learn high frequency residuals by reusing the upsampled low resolution features. With a classifier calibration module, MSNet can dynamically allocate computation resources during inference to achieve a better speed and accuracy trade-off. We evaluate our methods on the challenging ImageNet-1k dataset and observe consistent improvements over different base networks. On ResNet-18 and MobileNet with alpha=1.0, MSNet gains 1.5% accuracy over both architectures without increasing computations. On the more efficient MobileNet with alpha=0.25, our method gains 3.8% accuracy with the same amount of computations.
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Bi-Residual Neural Network based Synchronous Motor Electrical Faults Diagnosis: Intra-link Layer Design for High-frequency Features
A bi-residual network with intra-layer shortcuts and multi-scale convolutions improves synchronous motor fault diagnosis accuracy on low-resolution noisy data by about 1 to 3 percent over ResNet18.