UIA – AI INFRASTRUCTURE UNIT: QUANTIFYING THE PHYSICAL CONSUMPTION OF ELECTRICITY AND WATER IN ARTIFICIAL INTELLIGENCE APPLICATIONS

Authors

  • Alan Martins da Cruz Author

DOI:

https://doi.org/10.56238/ERR01v10n7-002

Keywords:

Artificial Intelligence, Digital Sustainability, Computational Efficiency, UIA, Energy Consumption, Water Footprint, Green AI, Computational Infrastructure

Abstract

The accelerated growth of Artificial Intelligence (AI) has significantly increased the demand for physical resources, such as electricity and water, often neglected in conventional economic and technological analyses. This article proposes the AI ​​Infrastructure Unit (UIA), a standardized quantitative metric designed to express the combined consumption of energy (kWh) and water (liters) per inference operation in AI models. The methodology integrates empirical data from data centers, international efficiency standards (PUE and WUE), and economic-environmental coefficients to construct a composite unit of physical cost. UIA values ​​were estimated and compared for different large-scale language models, covering short and long query scenarios. The results show significant variations in physical consumption between models, indicating that differences in infrastructure and hardware can multiply the environmental cost per operation by up to 80 times. The analysis demonstrates that marginal efficiency gains, when applied on a large scale, represent significant reductions in energy and water. It is concluded that the adoption of UIA can contribute to environmental transparency, fair pricing, and incentives for computational efficiency. The metric proposes a new way to measure the sustainability of AI, making visible the material basis of systems that, until then, were treated as purely digital.

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References

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Published

2025-12-01

Issue

Section

Articles

How to Cite

UIA – AI INFRASTRUCTURE UNIT: QUANTIFYING THE PHYSICAL CONSUMPTION OF ELECTRICITY AND WATER IN ARTIFICIAL INTELLIGENCE APPLICATIONS. (2025). ERR01, 10(7), e10600 . https://doi.org/10.56238/ERR01v10n7-002