Research map / Adversarial robustness and security / Certified and empirical robustness
Training for Faster Adversarial Robustness Verification via Inducing ReLU Stability
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Measured effects reported in the paper
| What was changed | Where | Measured | Effect |
|---|---|---|---|
| Add RS Loss to the control training procedure (ablation) | Control network · MNIST ε=0.1 | provable adversarial accuracy: 91.58% -> 94.33% | Helped |
| Add RS Loss to the control training procedure (ablation) | Control network · MNIST ε=0.2 | provable adversarial accuracy: 86.45% -> 89.79% | Helped |
| Add RS Loss to the control training procedure (ablation) | Control network · MNIST ε=0.3 | provable adversarial accuracy: 77.99% -> 80.68% | Helped |
| Add RS Loss to the control training procedure (ablation) | Control network · CIFAR ε=2/255 | provable adversarial accuracy: 45.53% -> 45.93% | Helped |
| Add RS Loss to the control training procedure (ablation) | Control network · CIFAR ε=8/255 | provable adversarial accuracy: 7.09% -> 20.27% | Helped |
| Add RS Loss to the control training procedure (ablation) | Control network · MNIST ε=0.1 | average solve time: 6.43 -> 0.49 | Helped |
| Add RS Loss to the control training procedure (ablation) | Control network · MNIST ε=0.2 | average solve time: 9.41 -> 1.13 | Helped |
| Add RS Loss to the control training procedure (ablation) | Control network · MNIST ε=0.3 | average solve time: 11.80 -> 2.78 | Helped |
| Add ℓ1 regularization (ablation) | Adversarially trained MNIST network · MNIST ε=0.1 | provable adversarial accuracy: 19.00% -> 82.17% | Helped |
| Add small weight pruning (ablation) | Adversarial training + ℓ1 regularization · MNIST ε=0.1 | provable adversarial accuracy: 82.17% -> 89.13% | Helped |
| Add ReLU pruning (ablation) | Adversarial training + ℓ1 regularization + small weight pruning · MNIST ε=0.1 | provable adversarial accuracy: 89.13% -> 91.58% | Helped |
| Use naive IA rather than improved IA to estimate ReLU bounds during RS training (ablation) | +RS · MNIST ε=0.2 | provable adversarial accuracy: 89.79% -> 85.54% | Hurt |
Closest papers by meaning
- VNN: Verification-Friendly Neural Networks with Hard Robustness Guarantees (ICML 2024 · similarity 0.90)
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