HBONext: HBONet with Flipped Inverted Residual

S. Joshi, M. El-Sharkawy
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Abstract

The top-performing deep CNN (DCNN) architectures are presented every year based on their compatibility and performance ability on the embedded edge applications, significantly for image classification. There are many obstacles in making these neural network architectures hardware friendly due to the limited memory, lesser computational resources, and the energy requirements of these devices. The addition of Bottleneck modules has further helped this classification problem, which explores the channel interdependencies, using either depthwise or groupwise convolutional features. The classical inverted residual block, a well-known design methodology, has now gained more attention due to its growing popularity in portable applications. This paper presents a mutated version of Harmonious Bottlenecks (DHbneck) with a Flipped version of Inverted Residual (FIR), which outperforms the existing HBONet architecture by giving the best accuracy value and the miniaturized model size. This FIR block performs identity mapping and spatial transformation at its higher dimensions, unlike the existing concept of inverted residual. The devised architecture is tested and validated using CIFAR-10 public dataset. The baseline HBONet architecture has an accuracy of 80.97% when tested on CIFAR-10 dataset and the model’s size is 22 MB. In contrast, the proposed architecture HBONext has an improved validation accuracy of 88.30% with a model reduction to a size of 7.66 MB.
HBONext:带反转残差的HBONet
基于其在嵌入式边缘应用中的兼容性和性能,每年都会提出性能最好的深度CNN (DCNN)架构,特别是在图像分类方面。由于这些设备有限的内存、较少的计算资源和能量需求,在使这些神经网络架构对硬件友好方面存在许多障碍。瓶颈模块的添加进一步帮助了这个分类问题,它使用深度或群卷积特征来探索通道的相互依赖性。经典的倒立残差块是一种众所周知的设计方法,由于其在便携式应用中的日益普及而受到越来越多的关注。本文提出了一种变异版的和谐瓶颈(DHbneck)和翻转版的倒残差(FIR),它通过提供最佳的精度值和小型化的模型尺寸来优于现有的HBONet架构。与现有的倒残差概念不同,该FIR块在其高维上执行恒等映射和空间变换。设计的架构使用CIFAR-10公共数据集进行了测试和验证。在CIFAR-10数据集上测试时,基线HBONet架构的准确率为80.97%,模型大小为22 MB。相比之下,提出的架构HBONext在模型减小到7.66 MB的情况下,验证准确率提高了88.30%。
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