Quantifying Energy Use across U.S. Water Sectors: A Scalable AI/ML-Driven Framework for Data Integration and Resilience Planning
This white paper explores opportunities to quantify and characterize energy use across major U.S. water sectors, including irrigation, water supply, and water treatment, with a focus on energy for water dimension. A scalable AI/ML-driven framework will be developed to harmonize fragmented datasets to support benchmarking, energy efficiency assessment, and energy-water (EW) resilience planning, with a pilot application of the framework in the western U.S.
Energy use data for water services in the conterminous United States (CONUS) are currently fragmented across multiple agencies, lack spatial, temporal, and sectoral consistency with limited availability of centralized reporting systems. Existing physics-based and statistical methods are limited by data availability, computational demand, and coarse resolution. A unified approach is needed to integrate diverse datasets and enhance the accuracy, granularity, and accessibility of energy-use estimates across sectors that can guide operational decision-making.
The proposed framework will harmonize existing and open data sources (e.g., EIA, USGS, USDA) and implement AI/ML and hybrid modeling approaches to fill data gaps and improve reliability of the estimates. Advances in AI architecture such as Graph Neural Networks and transfer learning?enable integration of multi-fidelity datasets, including existing estimates of energy use to generate scalable, high-resolution metrics. Leveraging ORNL?s high-performance computing capabilities, the framework will produce open-access datasets and decision-support tools aimed at enhancing EW resilience. A pilot project in a hydroelectricity-dominant, irrigation-heavy regions in the Pacific western US will demonstrate the framework?s scalability and practical utility.
Project success will be evaluated through four specific measurable outcomes:
(a) Development of an open-access, high-resolution energy-use dataset for U.S. water sectors
(b) Creation of a large training dataset for community-driven AI/ML enhancement
(c) Demonstration of a validated, scalable decision-support system, and
(d) Establishment of a reproducible, extensible data-integration and modeling workflow that can support national-scale EW resilience and planning strategies.
Citation Formats
TY - DATA
AB - This white paper explores opportunities to quantify and characterize energy use across major U.S. water sectors, including irrigation, water supply, and water treatment, with a focus on energy for water dimension. A scalable AI/ML-driven framework will be developed to harmonize fragmented datasets to support benchmarking, energy efficiency assessment, and energy-water (EW) resilience planning, with a pilot application of the framework in the western U.S.
Energy use data for water services in the conterminous United States (CONUS) are currently fragmented across multiple agencies, lack spatial, temporal, and sectoral consistency with limited availability of centralized reporting systems. Existing physics-based and statistical methods are limited by data availability, computational demand, and coarse resolution. A unified approach is needed to integrate diverse datasets and enhance the accuracy, granularity, and accessibility of energy-use estimates across sectors that can guide operational decision-making.
The proposed framework will harmonize existing and open data sources (e.g., EIA, USGS, USDA) and implement AI/ML and hybrid modeling approaches to fill data gaps and improve reliability of the estimates. Advances in AI architecture such as Graph Neural Networks and transfer learning?enable integration of multi-fidelity datasets, including existing estimates of energy use to generate scalable, high-resolution metrics. Leveraging ORNL?s high-performance computing capabilities, the framework will produce open-access datasets and decision-support tools aimed at enhancing EW resilience. A pilot project in a hydroelectricity-dominant, irrigation-heavy regions in the Pacific western US will demonstrate the framework?s scalability and practical utility.
Project success will be evaluated through four specific measurable outcomes:
(a) Development of an open-access, high-resolution energy-use dataset for U.S. water sectors
(b) Creation of a large training dataset for community-driven AI/ML enhancement
(c) Demonstration of a validated, scalable decision-support system, and
(d) Establishment of a reproducible, extensible data-integration and modeling workflow that can support national-scale EW resilience and planning strategies.
AU - Ghimire, Ganesh
A2 - Bhanja, Soumendra
A3 - Gangrade, Sudershan
A4 - Martinez, Rocio Uria
DB - Energy-Water Resilience
DP - Open EI | National Laboratory of the Rockies
DO -
KW - Energy for water
KW - AI/ML-driven framework
KW - energy use
KW - water services
KW - decision-support system
KW - irrigation demand and modernization
KW - United States
KW - water sector
KW - irrigation
KW - water supply
KW - water treatment
KW - water dimension
KW - resilience planning
LA - English
DA - 2026/01/16
PY - 2026
PB - ORNL
T1 - Quantifying Energy Use across U.S. Water Sectors: A Scalable AI/ML-Driven Framework for Data Integration and Resilience Planning
UR - https://ewr.openei.org/submissions/26
ER -
Ghimire, Ganesh, et al. Quantifying Energy Use across U.S. Water Sectors: A Scalable AI/ML-Driven Framework for Data Integration and Resilience Planning. ORNL, 16 January, 2026, Energy-Water Resilience. https://ewr.openei.org/submissions/26.
Ghimire, G., Bhanja, S., Gangrade, S., & Martinez, R. (2026). Quantifying Energy Use across U.S. Water Sectors: A Scalable AI/ML-Driven Framework for Data Integration and Resilience Planning. [Data set]. Energy-Water Resilience. ORNL. https://ewr.openei.org/submissions/26
Ghimire, Ganesh, Soumendra Bhanja, Sudershan Gangrade, and Rocio Uria Martinez. Quantifying Energy Use across U.S. Water Sectors: A Scalable AI/ML-Driven Framework for Data Integration and Resilience Planning. ORNL, January, 16, 2026. Distributed by Energy-Water Resilience. https://ewr.openei.org/submissions/26
@misc{EWR_Dataset_26,
title = {Quantifying Energy Use across U.S. Water Sectors: A Scalable AI/ML-Driven Framework for Data Integration and Resilience Planning},
author = {Ghimire, Ganesh and Bhanja, Soumendra and Gangrade, Sudershan and Martinez, Rocio Uria},
abstractNote = {This white paper explores opportunities to quantify and characterize energy use across major U.S. water sectors, including irrigation, water supply, and water treatment, with a focus on energy for water dimension. A scalable AI/ML-driven framework will be developed to harmonize fragmented datasets to support benchmarking, energy efficiency assessment, and energy-water (EW) resilience planning, with a pilot application of the framework in the western U.S.
Energy use data for water services in the conterminous United States (CONUS) are currently fragmented across multiple agencies, lack spatial, temporal, and sectoral consistency with limited availability of centralized reporting systems. Existing physics-based and statistical methods are limited by data availability, computational demand, and coarse resolution. A unified approach is needed to integrate diverse datasets and enhance the accuracy, granularity, and accessibility of energy-use estimates across sectors that can guide operational decision-making.
The proposed framework will harmonize existing and open data sources (e.g., EIA, USGS, USDA) and implement AI/ML and hybrid modeling approaches to fill data gaps and improve reliability of the estimates. Advances in AI architecture such as Graph Neural Networks and transfer learning?enable integration of multi-fidelity datasets, including existing estimates of energy use to generate scalable, high-resolution metrics. Leveraging ORNL?s high-performance computing capabilities, the framework will produce open-access datasets and decision-support tools aimed at enhancing EW resilience. A pilot project in a hydroelectricity-dominant, irrigation-heavy regions in the Pacific western US will demonstrate the framework?s scalability and practical utility.
Project success will be evaluated through four specific measurable outcomes:
(a) Development of an open-access, high-resolution energy-use dataset for U.S. water sectors
(b) Creation of a large training dataset for community-driven AI/ML enhancement
(c) Demonstration of a validated, scalable decision-support system, and
(d) Establishment of a reproducible, extensible data-integration and modeling workflow that can support national-scale EW resilience and planning strategies.
},
url = {https://ewr.openei.org/submissions/26},
year = {2026},
howpublished = {Energy-Water Resilience, ORNL, https://ewr.openei.org/submissions/26},
note = {Accessed: 2026-04-06}
}
Details
Data from Jan 16, 2026
Last updated Jan 16, 2026
Submitted Jan 16, 2026
Contact
Ganesh Ghimire
Authors
Keywords
Energy for water, AI/ML-driven framework, energy use, water services, decision-support system, irrigation demand and modernization, United States, water sector, irrigation, water supply, water treatment, water dimension, resilience planningDOE Project Details
Project Name White Papers on Ideas to Advance Energy-Water Resilience
Project Lead
Project Number WP-026
