High-Accuracy AI Models Can Increase Net Energy Loss

Jaeik Jeong, Tai-Yeon Ku, Wan-Ki Park· August 28, 2026 View original

Key takeaways

  • High-accuracy AI models on edge devices can paradoxically increase net energy loss.
  • The "Accuracy-Efficiency Paradox" considers inference energy and battery aging as energy costs.
  • A TCO framework is proposed to minimize total net energy loss in edge AI.
  • Simpler, less computationally intensive models may be more energy-efficient overall for edge deployments.

Who benefits

DefenseIoTAutomotiveConsumer ElectronicsRenewable Energy

Summary

This paper identifies the "Accuracy-Efficiency Paradox" in on-device energy forecasting, where highly accurate models can paradoxically lead to a net energy deficit due to their inference energy consumption and impact on battery aging. It proposes a Total Cost of Ownership (TCO) framework to minimize net energy loss by unifying inference energy and battery degradation as forms of energy loss.

In mission-critical edge environments, such as military systems, energy forecasting aims for maximum accuracy to minimize energy waste. However, new research reveals an "Accuracy-Efficiency Paradox": highly precise energy forecasting models can inadvertently cause a net energy deficit. This occurs because the energy consumed by the AI model's inference process, combined with its contribution to battery aging, can outweigh the energy savings achieved through its superior forecasting accuracy. To address this, the paper introduces a Total Cost of Ownership (TCO) framework for energy forecasting. This framework redefines energy loss to include not only the inference energy consumption of edge AI but also the degradation of battery capacity over time, treating both as a unified form of energy dissipation. The study demonstrates that in thermally sensitive edge environments, the energy saved by using complex, high-precision AI architectures is often negated by the total energy lost due to their intensive operational demands. This highlights the need for a holistic view of energy efficiency in edge AI deployments.

Why it matters

Professionals developing or deploying AI on edge devices, especially in energy-constrained or mission-critical scenarios, must consider the total energy cost beyond just model accuracy. Optimizing for net energy loss rather than just prediction accuracy can lead to more sustainable and effective deployments.

How to implement this in your domain

  1. 1Adopt a Total Cost of Ownership (TCO) framework for evaluating edge AI solutions, including inference energy and battery aging.
  2. 2Benchmark AI models not just on accuracy, but also on their energy consumption during inference.
  3. 3Prioritize simpler, more energy-efficient AI architectures for edge deployments where energy is a critical constraint.
  4. 4Integrate battery health monitoring and degradation models into the overall system design and optimization.
  5. 5Develop strategies to balance prediction accuracy with the energy cost of achieving that accuracy.

Original post by Jaeik Jeong, Tai-Yeon Ku, Wan-Ki Park

"arXiv:2608.26134v1 Announce Type: new Abstract: Energy forecasting aims to maximize accuracy to ensure energy efficiency by reducing energy waste, an objective that applies equally to on-device forecasting for mission-critical edge environments, including military systems. Howeve…"

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