Water Reuse Energy Demands and Water Quality Metrics

Publicly accessible License 

This white paper discusses strategies for enhancing water resilience in energy production by advancing water reuse and reclamation technologies, particularly for thermoelectric power plants and data centers. The focus is on efficiently closing the water loop by processing discharged cooling water to recover valuable minerals, thereby reducing energy-intensive water sourcing and management. This approach aims to alleviate water scarcity issues, especially in arid regions, while also promoting operational sustainability.

Water management practices in water-scarce areas, such as military installations, often rely on energy-intensive methods like desalination and long-distance transportation of water. For example, Camp Buehring in Kuwait relies heavily on trucking in water, incurring high fuel costs and operational vulnerabilities. Current wastewater reuse practices face challenges, including high total dissolved solids (TDS) from recirculated cooling water, which can overwhelm treatment facilities when discharged. The increasing energy demand from data centers and the need for reliable water sources necessitate innovative solutions to improve water management.

Proposed Solutions include: (1) Advanced reclamation technologies, (2) modular water reclamation systems, (3) integration with energy systems, and (4) research and testing infrastructure.

Success will be quantified through metrics such as reduced water delivery costs, increased water reuse rates (targeting 50-70%), energy savings from decreased trucking, improved water quality, and enhanced system reliability. Broader impacts will include adoption rates of water reuse technologies in non-military sectors and the qualitative benefits of increased resilience and operational stability in remote locations.

Citation Formats

TY - DATA AB - This white paper discusses strategies for enhancing water resilience in energy production by advancing water reuse and reclamation technologies, particularly for thermoelectric power plants and data centers. The focus is on efficiently closing the water loop by processing discharged cooling water to recover valuable minerals, thereby reducing energy-intensive water sourcing and management. This approach aims to alleviate water scarcity issues, especially in arid regions, while also promoting operational sustainability. Water management practices in water-scarce areas, such as military installations, often rely on energy-intensive methods like desalination and long-distance transportation of water. For example, Camp Buehring in Kuwait relies heavily on trucking in water, incurring high fuel costs and operational vulnerabilities. Current wastewater reuse practices face challenges, including high total dissolved solids (TDS) from recirculated cooling water, which can overwhelm treatment facilities when discharged. The increasing energy demand from data centers and the need for reliable water sources necessitate innovative solutions to improve water management. Proposed Solutions include: (1) Advanced reclamation technologies, (2) modular water reclamation systems, (3) integration with energy systems, and (4) research and testing infrastructure. Success will be quantified through metrics such as reduced water delivery costs, increased water reuse rates (targeting 50-70%), energy savings from decreased trucking, improved water quality, and enhanced system reliability. Broader impacts will include adoption rates of water reuse technologies in non-military sectors and the qualitative benefits of increased resilience and operational stability in remote locations. AU - Shurtliff, Michael A2 - Cafferty, Kara A3 - Reese, Stephen DB - Energy-Water Resilience DP - Open EI | National Laboratory of the Rockies DO - KW - Water reclamation KW - Thermoelectric power plants KW - Cooling water KW - Operational security KW - Closed-loop systems KW - energy production KW - reuse KW - reclamation KW - thermoelectric power plant KW - data center KW - minerals KW - cooling LA - English DA - 2026/01/16 PY - 2026 PB - INL T1 - Water Reuse Energy Demands and Water Quality Metrics UR - https://ewr.openei.org/submissions/50 ER -
Export Citation to RIS
Shurtliff, Michael, et al. Water Reuse Energy Demands and Water Quality Metrics. INL, 16 January, 2026, Energy-Water Resilience. https://ewr.openei.org/submissions/50.
Shurtliff, M., Cafferty, K., & Reese, S. (2026). Water Reuse Energy Demands and Water Quality Metrics. [Data set]. Energy-Water Resilience. INL. https://ewr.openei.org/submissions/50
Shurtliff, Michael, Kara Cafferty, and Stephen Reese. Water Reuse Energy Demands and Water Quality Metrics. INL, January, 16, 2026. Distributed by Energy-Water Resilience. https://ewr.openei.org/submissions/50
@misc{EWR_Dataset_50, title = {Water Reuse Energy Demands and Water Quality Metrics}, author = {Shurtliff, Michael and Cafferty, Kara and Reese, Stephen}, abstractNote = {This white paper discusses strategies for enhancing water resilience in energy production by advancing water reuse and reclamation technologies, particularly for thermoelectric power plants and data centers. The focus is on efficiently closing the water loop by processing discharged cooling water to recover valuable minerals, thereby reducing energy-intensive water sourcing and management. This approach aims to alleviate water scarcity issues, especially in arid regions, while also promoting operational sustainability.

Water management practices in water-scarce areas, such as military installations, often rely on energy-intensive methods like desalination and long-distance transportation of water. For example, Camp Buehring in Kuwait relies heavily on trucking in water, incurring high fuel costs and operational vulnerabilities. Current wastewater reuse practices face challenges, including high total dissolved solids (TDS) from recirculated cooling water, which can overwhelm treatment facilities when discharged. The increasing energy demand from data centers and the need for reliable water sources necessitate innovative solutions to improve water management.

Proposed Solutions include: (1) Advanced reclamation technologies, (2) modular water reclamation systems, (3) integration with energy systems, and (4) research and testing infrastructure.

Success will be quantified through metrics such as reduced water delivery costs, increased water reuse rates (targeting 50-70\%), energy savings from decreased trucking, improved water quality, and enhanced system reliability. Broader impacts will include adoption rates of water reuse technologies in non-military sectors and the qualitative benefits of increased resilience and operational stability in remote locations.
}, url = {https://ewr.openei.org/submissions/50}, year = {2026}, howpublished = {Energy-Water Resilience, INL, https://ewr.openei.org/submissions/50}, note = {Accessed: 2026-06-10} }

Details

Data from Jan 16, 2026

Last updated Jan 16, 2026

Submitted Jan 16, 2026

Contact

Michael Shurtliff

Authors

Michael Shurtliff

INL

Kara Cafferty

INL

Stephen Reese

INL

DOE Project Details

Project Name White Papers on Ideas to Advance Energy-Water Resilience

Project Lead

Project Number WP-050

Share

Submission Downloads