GENADA: Efficient Generative Adversarial Attacks on Time Series Models

Michael Baronov, Denis Vorobev, Margarita Rusanova, Petr Sokerin, Alexey Zaytsev· August 14, 2026 View original

Key takeaways

  • GENADA offers an efficient method for generating adversarial attacks on time series models.
  • It reduces the computational cost of creating perturbations compared to gradient-based methods.
  • The framework maintains comparable attack quality while speeding up inference.
  • This research is crucial for enhancing the security and robustness of AI in critical time series applications.

Who benefits

HealthcareFinanceEnergyEnvironmental MonitoringCybersecurity

Summary

Researchers introduce GENADA, a generative adversarial attack framework that efficiently creates deceptive perturbations for time series models in a single forward pass, achieving comparable attack quality to existing methods with less inference time.

Deep learning models are increasingly used for time series analysis across various critical sectors like healthcare and finance. However, these models are susceptible to adversarial attacks, where minor input changes can significantly degrade their performance. Traditional gradient-based attack methods are computationally intensive, requiring multiple backpropagation steps to generate perturbations. A new framework, GENADA (GENerative ADversarial Attack), addresses this by learning a generative model to produce these deceptive perturbations directly. This allows for the creation of adversarial examples in a single forward pass, significantly reducing the computational burden during inference. The framework includes both single-step and iterative generative attack schemes. Validation experiments on various neural models and datasets in low-dimensional time-series settings demonstrated that GENADA achieves attack quality comparable to strong baseline methods. Crucially, it does so while requiring substantially less time to generate the adversarial perturbations during the inference phase. This efficiency makes it a promising approach for evaluating and improving the robustness of time series models.

Why it matters

Professionals deploying AI in sensitive time series applications need to understand and mitigate adversarial risks, and this research offers a more efficient way to test model robustness.

How to implement this in your domain

  1. 1Evaluate existing time series models against GENADA to identify vulnerabilities.
  2. 2Integrate GENADA into CI/CD pipelines for continuous security testing of new model deployments.
  3. 3Develop defense mechanisms or robust training strategies based on the types of attacks GENADA generates.
  4. 4Benchmark the computational cost of robustness testing using GENADA versus traditional methods.

Original post by Michael Baronov, Denis Vorobev, Margarita Rusanova, Petr Sokerin, Alexey Zaytsev

"arXiv:2608.12535v1 Announce Type: new Abstract: Deep learning models are widely used for time series analysis in domains such as healthcare, finance, energy systems, and environmental monitoring. However, these models remain vulnerable to adversarial attacks, where small input pe…"

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Originally posted by Michael Baronov, Denis Vorobev, Margarita Rusanova, Petr Sokerin, Alexey Zaytsev on X · view source

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