Demand Response Vulnerable to Adversarial Price Forecast Attacks

Clemens Kortmann, Eike Cramer· July 9, 2026 View original

Summary

This research investigates how manipulated electricity price forecasts impact industrial demand response, finding that adversarial attacks can erode profits. While limited perturbations preserve about 90% of financial advantage, the orientation of attacks, not just magnitude, significantly influences their impact.

A new study explores the vulnerability of industrial demand response systems to cyberattacks involving adversarial data modifications. Specifically, the research focuses on how manipulated electricity price forecasts can negatively impact the decision-making processes in energy-intensive production. Adversarial attacks, which are crafted data manipulations, aim to degrade the outcomes of prediction or decision-making algorithms. The study designed adversarial attacks to distort electricity price forecasts, which were then used to solve scheduling optimization problems for industrial processes. It found that these attacks can indeed diminish the profits gained from demand response. However, when the perturbations are subtle enough to be difficult for human users to detect, demand response still retains approximately 90% of its financial benefits compared to steady-state operations. A key finding is that the impact of these attacks depends more on the *orientation* of the adversarial perturbations rather than just their magnitude, highlighting the need for attack analyses to consider the sensitivities of scheduling optimization models.

Why it matters

As energy systems become more interconnected and reliant on AI-driven demand response, understanding and mitigating vulnerabilities to adversarial attacks is critical for grid stability and economic efficiency.

How to implement this in your domain

  1. 1Implement robust anomaly detection systems for electricity price forecasts to identify potential adversarial manipulations.
  2. 2Develop and test scheduling optimization models against various adversarial attack scenarios, focusing on perturbation orientation.
  3. 3Integrate cybersecurity best practices into demand response system design, including data integrity checks and secure communication protocols.
  4. 4Educate energy managers and operators on the risks of adversarial data modifications and how to recognize suspicious patterns.

Who benefits

EnergyManufacturingUtilitiesCybersecuritySmart Grid

Key takeaways

  • Industrial demand response systems are vulnerable to adversarial attacks on price forecasts.
  • Such attacks can erode profits, even with subtle data manipulations.
  • The orientation of adversarial perturbations is more critical than their magnitude.
  • Robust security measures are needed to protect demand response systems.

Original post by Clemens Kortmann, Eike Cramer

"arXiv:2607.06632v1 Announce Type: new Abstract: Adversarial attacks are crafted data manipulations that aim to deteriorate the outcomes of prediction or decision-making algorithms. In the energy systems literature, adversarial attacks have been studied with a focus on problems re…"

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