Binarized ResNet: Enabling Robust Automatic Modulation Classification at
the resource-constrained Edge
- URL: http://arxiv.org/abs/2110.14357v2
- Date: Tue, 18 Apr 2023 03:22:29 GMT
- Title: Binarized ResNet: Enabling Robust Automatic Modulation Classification at
the resource-constrained Edge
- Abstract summary: Deep neural networks (DNNs) have been used extensively for automatic modulation classification (AMC)
DNNs have high memory and computation requirements making them impractical for edge networks where the devices are resource-constrained.
This work proposes a rotated binary large ResNet (RBLResNet) for AMC that can be deployed at the edge network because of low memory and computational complexity.
- Score: 9.103162893345939
- License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
- Abstract: Recently, deep neural networks (DNNs) have been used extensively for
automatic modulation classification (AMC), and the results have been quite
promising. However, DNNs have high memory and computation requirements making
them impractical for edge networks where the devices are resource-constrained.
They are also vulnerable to adversarial attacks, which is a significant
security concern. This work proposes a rotated binary large ResNet (RBLResNet)
for AMC that can be deployed at the edge network because of low memory and
computational complexity. The performance gap between the RBLResNet and
existing architectures with floating-point weights and activations can be
closed by two proposed ensemble methods: (i) multilevel classification (MC),
and (ii) bagging multiple RBLResNets while retaining low memory and
computational power. The MC method achieves an accuracy of $93.39\%$ at $10$dB
over all the $24$ modulation classes of the Deepsig dataset. This performance
is comparable to state-of-the-art (SOTA) performances, with $4.75$ times lower
memory and $1214$ times lower computation. Furthermore, RBLResNet also has high
adversarial robustness compared to existing DNN models. The proposed MC method
with RBLResNets has an adversarial accuracy of $87.25\%$ over a wide range of
SNRs, surpassing the robustness of all existing SOTA methods to the best of our
knowledge. Properties such as low memory, low computation, and the highest
adversarial robustness make it a better choice for robust AMC in low-power edge
devices.
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