Research map / Adversarial robustness and security / Certified and empirical robustness
Once-for-All Adversarial Training: In-Situ Tradeoff between Robustness and Accuracy for Free
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Measured effects reported in the paper
| What was changed | Where | Measured | Effect |
|---|---|---|---|
| Condition one model on λ and use dual batch normalization to separate clean and adversarial feature statistics | OAT · SVHN test, PGD-7 | SA/RA trade-off: 94.43% SA and 62.16% RA -> 97.07% SA and 37.32% RA as λ varies from 1 to 0.1 | Helped |
| Replace dual BN with normal BN (ablation) | OAT · SVHN test, PGD-7 | SA-RA trade-off: 61.81% to 62.62% RA; SA less than 94% | Hurt |
| Train with a denser λ set S2 instead of sparse S1 (ablation) | OAT · SVHN | SA/RA | Mixed |
| Train on sparse λ values and evaluate at unseen λ values | OAT · SVHN, unseen λ set S3 | SA/RA | Helped |
| Sample λ continuously from [0,1] instead of the sparse discrete set (ablation) | OAT · SVHN | SA/RA: within ±0.2% for SA/RA | No clear effect |
| Use continuous λ sampling rather than the discrete sparse set (ablation) | OAT · SVHN training | epochs to converge: 10% more epochs | Hurt |
| Omit λ=0 during normal-BN training (ablation) | OAT · CIFAR-10, λ>0 | SA/RA: within ±0.5% SA/RA | No clear effect |
| Use normal BN and omit λ=0 instead of using dual BN (ablation) | OAT · CIFAR-10 | best achievable SA: 91.5% -> 93.1% | Hurt |
| Encode λ with RO-16 or RO-128 instead of leaving it unencoded (ablation) | OAT · CIFAR-10 | best achievable SA: 92.53% -> 93.16%; 92.53% -> 93.68% | Helped |
| Increase random orthogonal λ encoding dimension from 16 to 128 (ablation) | OAT · CIFAR-10 | best achievable SA: 93.16% -> 93.68% | Helped |
| Condition on channel width as well as λ | OATS · CIFAR-10, width 0.5, 0.75, and 1.0 | SA-RA trade-off | No clear effect |
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