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Exploring Adversarial Robustness of Deep State Space Models

NeurIPS 2024 · Adversarial robustness and security › Certified and empirical robustness · approach: Adversarial training refinements · 1 citations (OpenAlex)

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Evaluates adversarial training on deep SSM variants (S4, DSS, S5, Mega, Mamba) and finds pure SSMs benefit little while attention helps but causes robust overfitting, then proposes a low-cost Adaptive Scaling module that matches attention-level gains without overfitting.

Problem

Adversarial training of deep state space models is poorly understood: it is unclear whether SSM component designs that help standard training also improve adversarial robustness, and how they affect the robustness-generalization trade-off and robust overfitting.

Approach

Empirically compares SSM structural variants under PGD-AT, TRADES, FreeAT, and YOPO, derives output-error bounds for fixed versus input-dependent SSMs under perturbations, and attributes attention's AT gains to adaptive output scaling; proposes a lightweight Adaptive Scaling (AdS) module added after the SSM output.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Add Adaptive Scaling after fixed-parameterized SSMs (ablation)S4 and DSS · CIFAR-10PGD-10 and AA accuracy: more than a 2% improvement in RAHelped
Add ReLU Adaptive Scaling after DSS under TRADES (ablation)DSS · CIFAR-10PGD-10 accuracy: 37.44 -> 41.24Helped
Add ReLU Adaptive Scaling after DSS under TRADES (ablation)DSS · CIFAR-10AA accuracy: 32.55 -> 37.56Mixed
Add ReLU Adaptive Scaling after S4 under TRADES (ablation)S4 · CIFAR-10PGD-10 accuracy: 36.00 -> 40.22Helped
Use Tanh rather than no Adaptive Scaling after S4 under PGD-AT (ablation)S4 · CIFAR-10PGD-10 accuracy: 36.19 -> 39.13Helped
Add Adaptive Scaling to DSS under TRADES (ablation)DSS · MNISTAA accuracy: 89.46 -> 90.34Mixed
Add ReLU Adaptive Scaling after DSS under YOPO (ablation)DSS · Tiny-ImageNetPGD-10 accuracy: 5.28 -> 5.92Helped
Add ReLU Adaptive Scaling after DSS under FreeAT (ablation)DSS · Tiny-ImageNetclean accuracy: 24.32 -> 25.48Helped
Add Attention to the SSM structure under adversarial trainingSSM models · CIFAR-10clean and adversarial accuracy: Mega achieves improvements of 4.21% and 2.68% in CA degradation under PGD-AT and TRADESHelped
Add Attention to Mega under PGD-ATMega · CIFAR-10PGD-10 test accuracy during training: 40.53% -> 30.68%Hurt
Use MIMO-only S5 instead of SISO SSMs with linear layersS5 · CIFAR-10robust accuracyHurt
Use data-dependent SSM parameterizationMamba · CIFAR-10clean and robust accuracyHurt

Surprising findings

Limitations

Experimental setup

Datasets: MNIST CIFAR-10 Tiny-ImageNet

Benchmarks: MNIST CIFAR-10 Tiny-ImageNet

Metrics: clean accuracy robust accuracy under PGD-10 robust accuracy under AutoAttack robust overfitting gap (best vs last) KL divergence and MSE of feature sequences

Baselines: S4 DSS S5 Mega Mamba FreeAT YOPO

Builds on: PGD-AT TRADES S4 Mamba Mega

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