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BayesWarp introduces a Bayesian optimization framework that enhances neural network testing by focusing mutations on decision-critical regions while maintaining semantic proximity to original data. Evaluation across standard benchmarks demonstrates improved failure discovery and diversity, with the generated failure cases further enabling model fine-tuning for performance gains. This approach offers a more efficient alternative to existing global mutation or coverage-guided strategies for validating reliability in safety-critical applications.
Testing Neural Networks via Bayesian-Guided Exploration of Decision Landscapes
arXiv:2606.04314v1 Announce Type: new Abstract: As neural networks are increasingly deployed in safety-critical domains, testing is essential to evaluate and improve their reliability. Existing testing methods, whether black-box or white-box, primarily use global mutation or coverage-guided strategies, both of which struggle to efficiently uncover diverse model failures while remaining proximate to the original data distribution and semantics. We propose BayesWarp, a testing framework that addresses this limitation by mutating decision-critical input regions identified via interpretable saliency techniques and adaptively guiding the testing process using an uncertainty-aware Bayesian Optimization strategy, enabling the discovery of diverse failures while preserving distributional and semantic proximity to the original data. Evaluation on MNIST, CIFAR-10, and ImageNet across six neural network models shows that BayesWarp improves failure discovery, failure diversity, test case quality, and critical neuron coverage under a fixed mutation budget. These results demonstrate that BayesWarp improves testing effectiveness. Moreover, fine-tuning with the generated failure cases leads to improvements in model performance.
Abstract:As neural networks are increasingly deployed in safety-critical domains, testing is essential to evaluate and improve their reliability. Existing testing methods, whether black-box or white-box, primarily use global mutation or coverage-guided strategies, both of which struggle to efficiently uncover diverse model failures while remaining proximate to the original data distribution and semantics. We propose BayesWarp, a testing framework that addresses this limitation by mutating decision-critical input regions identified via interpretable saliency techniques and adaptively guiding the testing process using an uncertainty-aware Bayesian Optimization strategy, enabling the discovery of diverse failures while preserving distributional and semantic proximity to the original data. Evaluation on MNIST, CIFAR-10, and ImageNet across six neural network models shows that BayesWarp improves failure discovery, failure diversity, test case quality, and critical neuron coverage under a fixed mutation budget. These results demonstrate that BayesWarp improves testing effectiveness. Moreover, fine-tuning with the generated failure cases leads to improvements in model performance.
Machine Learning (cs.LG); Software Engineering (cs.SE)
arXiv:2606.04314 [cs.LG]
(or arXiv:2606.04314v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2606.04314 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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