WaterAdmin: Orchestrating Community Water Distribution Optimization via AI Agents

arXiv cs.LG / 4/14/2026

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Key Points

  • The paper introduces WaterAdmin, a bi-level AI-agent framework for optimizing community water distribution where pumps and valves must meet demand reliably while minimizing energy use.
  • It argues that conventional optimization methods fail in real-world conditions due to rapidly changing, heterogeneous context (e.g., weather and human activity) that is hard to integrate in real time.
  • WaterAdmin uses an upper-level LLM-agent component to abstract and interpret community context, while a lower-level optimization module generates operational control decisions.
  • The approach is implemented on the EPANET hydraulic simulation platform and is reported to improve pressure reliability and reduce energy consumption under highly dynamic scenarios.
  • The work positions LLM agents as context understanding/aggregation tools rather than direct real-time controllers to maintain reliability.

Abstract

We study the operation of community water systems, where pumps and valves must be scheduled to reliably meet water demands while minimizing energy consumption. While existing optimization-based methods are effective under well-modeled environments, real-world community scenarios exhibit highly dynamic contexts-such as human activities, weather variations, etc-that significantly affect water demand patterns and operational targets across different zones. Traditional optimization approaches struggle to aggregate and adapt to such heterogeneous and rapidly evolving contextual information in real time. While Large Language Model (LLM) agents offer strong capabilities for understanding heterogeneous community context, they are not suitable for directly producing reliable real-time control actions. To address these challenges, we propose a bi-level AI-agent-based framework, WaterAdmin, which integrates LLM-based community context abstraction at the upper level with optimization-based operational control at the lower level. This design leverages the complementary strengths of both paradigms to enable adaptive and reliable operation. We implement WaterAdmin on the hydraulic simulation platform EPANET and demonstrate superior performance in maintaining pressure reliability and reducing energy consumption under highly dynamic community contexts.