AI-Enhanced Hydropower Systems: Smart Dams for a Resilient Future

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This paper focuses on water-energy, using AI for smart, holistic hydropower operations to enhance water for energy resilience.

The existing challenges include (a) increasing demand for water and electricity, requiring a shift to flexible, real-time hydropower operations due to changing demand and weather. (b) Short-term resilience is impacted by hydrometeorological extremes, while long-term vulnerabilities are driven by natural and human factors, leading to issues like low reservoir levels, increased water temperatures, and aging infrastructure. (c) Optimizing for one function in reservoir operations can compromise others. (d) Opportunity to use Artificial Intelligence (AI) to optimize and adapt reservoir operations for short and long-term resilience. Low AI adoption in the hydropower sector due to concerns about unproven technologies, data access barriers, data ownership, cybersecurity, and lack of clear standards or metrics for performance.

Near-Term Opportunities (using AI/Machine Learning) include (a) short-term predictions: AI models can forecast energy production, streamflow, and water quality for low-latency decisions in forecast-informed reservoir operations (FIRO). (b) Longer-term outlooks: AI can learn from complex datasets to provide seasonal-to-decadal inflow projections, capturing coupled atmospheric science, hydrology, ground motion, and energy dynamics. (c) Autonomous, self-guiding observations: Smart dams can leverage IoT networks, drones, robotics, and remote sensing for comprehensive monitoring. (d) Advanced Data Management: AI tools can automate data management, quality assurance, and integration of large data streams, with Large Language Models extracting information from historical documents. (e) Digital Twins and Reinforcement Learning: Digital twins, agentic systems enable smart dam operations by assimilating monitoring data. Reinforcement learning optimizes multi-objective dam operations for real-time decision support.

Success measures would be that AI research in hydropower should inform operations for energy security, dam operators, other agencies, and industry partners, extending to other types of reservoirs, as well as specific measures include developing a framework for assessing AI methods with benchmarks and demonstrating superior AI use for inflow forecasting and early warning.

Citation Formats

TY - DATA AB - This paper focuses on water-energy, using AI for smart, holistic hydropower operations to enhance water for energy resilience. The existing challenges include (a) increasing demand for water and electricity, requiring a shift to flexible, real-time hydropower operations due to changing demand and weather. (b) Short-term resilience is impacted by hydrometeorological extremes, while long-term vulnerabilities are driven by natural and human factors, leading to issues like low reservoir levels, increased water temperatures, and aging infrastructure. (c) Optimizing for one function in reservoir operations can compromise others. (d) Opportunity to use Artificial Intelligence (AI) to optimize and adapt reservoir operations for short and long-term resilience. Low AI adoption in the hydropower sector due to concerns about unproven technologies, data access barriers, data ownership, cybersecurity, and lack of clear standards or metrics for performance. Near-Term Opportunities (using AI/Machine Learning) include (a) short-term predictions: AI models can forecast energy production, streamflow, and water quality for low-latency decisions in forecast-informed reservoir operations (FIRO). (b) Longer-term outlooks: AI can learn from complex datasets to provide seasonal-to-decadal inflow projections, capturing coupled atmospheric science, hydrology, ground motion, and energy dynamics. (c) Autonomous, self-guiding observations: Smart dams can leverage IoT networks, drones, robotics, and remote sensing for comprehensive monitoring. (d) Advanced Data Management: AI tools can automate data management, quality assurance, and integration of large data streams, with Large Language Models extracting information from historical documents. (e) Digital Twins and Reinforcement Learning: Digital twins, agentic systems enable smart dam operations by assimilating monitoring data. Reinforcement learning optimizes multi-objective dam operations for real-time decision support. Success measures would be that AI research in hydropower should inform operations for energy security, dam operators, other agencies, and industry partners, extending to other types of reservoirs, as well as specific measures include developing a framework for assessing AI methods with benchmarks and demonstrating superior AI use for inflow forecasting and early warning. AU - Varadharajan, Charuleka A2 - Ajami, Newsha A3 - Brodie, Eoin A4 - Ciulla, Fabio A5 - Falco, Nicola A6 - Feldman, Daniel A7 - Newcomer, Michelle A8 - Dwivedi, Dipankar A9 - Li, Yishen A10 - Nakata, Rie A11 - Nakata, Nori A12 - Nico, Peter S. A13 - Williams, Kenneth H. A14 - Mahoney, Michael W. A15 - Ramakrishnan, Lavanya A16 - Amusat, Oluwamayowa A17 - Cholia, Shreyas DB - Energy-Water Resilience DP - Open EI | National Laboratory of the Rockies DO - KW - hydropower KW - reservoir operations KW - dams KW - energy-water resilience KW - artificial intelligence KW - machine learning KW - water availability KW - land stability KW - infrastructure monitoring KW - water quality KW - technology innovation KW - AI KW - holistic hydropowr KW - energy resilience KW - ML LA - English DA - 2026/01/15 PY - 2026 PB - LBNL T1 - AI-Enhanced Hydropower Systems: Smart Dams for a Resilient Future UR - https://ewr.openei.org/submissions/11 ER -
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Varadharajan, Charuleka, et al. AI-Enhanced Hydropower Systems: Smart Dams for a Resilient Future. LBNL, 15 January, 2026, Energy-Water Resilience. https://ewr.openei.org/submissions/11.
Varadharajan, C., Ajami, N., Brodie, E., Ciulla, F., Falco, N., Feldman, D., Newcomer, M., Dwivedi, D., Li, Y., Nakata, R., Nakata, N., Nico, P., Williams, K., Mahoney, M., Ramakrishnan, L., Amusat, O., & Cholia, S. (2026). AI-Enhanced Hydropower Systems: Smart Dams for a Resilient Future. [Data set]. Energy-Water Resilience. LBNL. https://ewr.openei.org/submissions/11
Varadharajan, Charuleka, Newsha Ajami, Eoin Brodie, Fabio Ciulla, Nicola Falco, Daniel Feldman, Michelle Newcomer, Dipankar Dwivedi, Yishen Li, Rie Nakata, Nori Nakata, Peter S. Nico, Kenneth H. Williams, Michael W. Mahoney, Lavanya Ramakrishnan, Oluwamayowa Amusat, and Shreyas Cholia. AI-Enhanced Hydropower Systems: Smart Dams for a Resilient Future. LBNL, January, 15, 2026. Distributed by Energy-Water Resilience. https://ewr.openei.org/submissions/11
@misc{EWR_Dataset_11, title = {AI-Enhanced Hydropower Systems: Smart Dams for a Resilient Future}, author = {Varadharajan, Charuleka and Ajami, Newsha and Brodie, Eoin and Ciulla, Fabio and Falco, Nicola and Feldman, Daniel and Newcomer, Michelle and Dwivedi, Dipankar and Li, Yishen and Nakata, Rie and Nakata, Nori and Nico, Peter S. and Williams, Kenneth H. and Mahoney, Michael W. and Ramakrishnan, Lavanya and Amusat, Oluwamayowa and Cholia, Shreyas}, abstractNote = {This paper focuses on water-energy, using AI for smart, holistic hydropower operations to enhance water for energy resilience.

The existing challenges include (a) increasing demand for water and electricity, requiring a shift to flexible, real-time hydropower operations due to changing demand and weather. (b) Short-term resilience is impacted by hydrometeorological extremes, while long-term vulnerabilities are driven by natural and human factors, leading to issues like low reservoir levels, increased water temperatures, and aging infrastructure. (c) Optimizing for one function in reservoir operations can compromise others. (d) Opportunity to use Artificial Intelligence (AI) to optimize and adapt reservoir operations for short and long-term resilience. Low AI adoption in the hydropower sector due to concerns about unproven technologies, data access barriers, data ownership, cybersecurity, and lack of clear standards or metrics for performance.

Near-Term Opportunities (using AI/Machine Learning) include (a) short-term predictions: AI models can forecast energy production, streamflow, and water quality for low-latency decisions in forecast-informed reservoir operations (FIRO). (b) Longer-term outlooks: AI can learn from complex datasets to provide seasonal-to-decadal inflow projections, capturing coupled atmospheric science, hydrology, ground motion, and energy dynamics. (c) Autonomous, self-guiding observations: Smart dams can leverage IoT networks, drones, robotics, and remote sensing for comprehensive monitoring. (d) Advanced Data Management: AI tools can automate data management, quality assurance, and integration of large data streams, with Large Language Models extracting information from historical documents. (e) Digital Twins and Reinforcement Learning: Digital twins, agentic systems enable smart dam operations by assimilating monitoring data. Reinforcement learning optimizes multi-objective dam operations for real-time decision support.

Success measures would be that AI research in hydropower should inform operations for energy security, dam operators, other agencies, and industry partners, extending to other types of reservoirs, as well as specific measures include developing a framework for assessing AI methods with benchmarks and demonstrating superior AI use for inflow forecasting and early warning.
}, url = {https://ewr.openei.org/submissions/11}, year = {2026}, howpublished = {Energy-Water Resilience, LBNL, https://ewr.openei.org/submissions/11}, note = {Accessed: 2026-06-17} }

Details

Data from Jan 15, 2026

Last updated Jan 16, 2026

Submitted Jan 16, 2026

Contact

Charuleka Varadharajan

Authors

Charuleka Varadharajan

LBNL

Newsha Ajami

LBNL

Eoin Brodie

LBNL

Fabio Ciulla

LBNL

Nicola Falco

LBNL

Daniel Feldman

LBNL

Michelle Newcomer

LBNL

Dipankar Dwivedi

LBNL

Yishen Li

LBNL

Rie Nakata

LBNL

Nori Nakata

LBNL

Peter S. Nico

LBNL

Kenneth H. Williams

LBNL

Michael W. Mahoney

LBNL

Lavanya Ramakrishnan

LBNL

Oluwamayowa Amusat

LBNL

Shreyas Cholia

LBNL

DOE Project Details

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

Project Lead

Project Number WP-011

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