SustainAI provides a practical foundation for integrating ethical care and environmental responsibility into AI infrastructure design and lifecycle management, framing AI sustainability around relational ethics, regional equity, and ecological stewardship.
Abstract
As artificial intelligence (AI) becomes embedded in everyday life, its environmental footprint, particularly water consumption remains largely invisible. While energy and carbon impacts are widely recognized, the substantial freshwater demands of data center cooling and electricity generation receive little attention. To address this gap, we introduce SustainAI, a water-aware, closed-loop framework incorporating environmental accountability into AI deployment. SustainAI integrates real-time water metering, a hallucination-aware penalty model, and a water-aware routing algorithm that accounts for regional water stress. Evaluated via Small Language Models (SLMs) extracting health misinformation, results reveal an 11-fold variation in water footprint across geographically distributed data centers (0.0477 mL to 0.5360 mL per inference). Across 1,335 inference runs, the system consumed approximately 399 mL of water but produced only 240 correct outputs, demonstrating that substantial resources are spent on inaccurate responses. Crucially, SustainAI extends beyond technical optimization through a Care by Design lens, framing AI sustainability around relational ethics, regional equity, and ecological stewardship. By combining water monitoring, adaptive accountability, and Care by Design principles, SustainAI provides a practical foundation for integrating ethical care and environmental responsibility into AI infrastructure design and lifecycle management.
Large-scale artificial intelligence systems increasingly disclose energy and carbon metrics, but their freshwater costs remain less consistently measured. This paper introduces the Water Cost of Intelligence (WCI), a per-query metric combining direct water consumed for on-site data-center cooling with indirect water co...
Bhanu Sharma, Amit Tiwari, Rashanjot Kaur et al.· Green· 0 citations
We are currently facing a growing challenge known as the "hidden cost of intelligence," driven by the immense energy consumption required to develop and practically deploy artificial intelligence (AI) models. This research paper analyzes the environmental impact of AI models and evaluates trends in their energy efficie...
Anaswara K. S., Krishna Mukundan M· International Journal of Tec...· 0 citations
Water losses in Water Distribution Networks remain a persistent challenge, with global impacts exceeding $39 billion annually. While Artificial Intelligence (AI) offers promising leak detection solutions, assessing operational readiness and reproducibility is difficult due to literature fragmented across sensing tech...
Aarón Narváez, Carmen Navarro, Jesús R. López et al.· Journal of Hydroinformatics· 0 citations
A practical checklist that ML/AI and Earth system science practitioners can use to assess and reduce the environmental footprint of their own applications, organised around the successive stages of the model development pipeline.
Filippo Dainelli, A. Mozaffari, Marina Castaño et al.· 0 citations
Smart aquaponics couples recirculating aquaculture with hydroponic plant cultivation, and a substantial body of recent research applies IoT sensing, machine learning, and edge computing to this domain. The literature, however, lacks a synthesis that maps how predictive models, system architectures, and biological conte...
Hamad Al-Mohannadi, Xiao-Fan Cao, Mahamood Alam et al.· Aquaculture International· 0 citations
The energetic and environmental impact of AI is becoming significant in all domains of applications. Specific to Document Engineering, AI models have become the predominant components of modern processing pipelines, ranging from document information extraction, transformation, interpretation, translation, etc. As AI wo...
Loïc Guibert, J. Hennebert, Sébastien Rumley· Proceedings of the 2026 ACM...· 0 citations
Able to defeat top-ranked human players and more efficient than other models, the new system could help decision-makers in military maneuvers or business negotiations.