Application of Time-Controlled Critical Point in Pressure Reducing Valves. A Case Study in North Spain
Andres Ortega-Ballesteros, David Munoz-Rodriguez, Maria-Jesus Aguilera-Urena, Francisco Javier de los Santos-Zarco, Alberto-Jesus Perea-Moreno

TL;DR
This paper introduces a SARIMA-based model to control pressure at critical points in water networks, improving leakage reduction without requiring flow signals or communication.
Contribution
It presents a novel application of SARIMA models for pressure control in water distribution, enabling effective management without flow signals or communication.
Findings
SARIMA model accurately predicts critical point pressure.
Model reduces leakage by maintaining optimal pressure.
Feasible alternative for pressure control without flow signals.
Abstract
Potable water utilities are currently making great efforts to reduce leakage rates and assure long-term supply to the population due to the challenges of climate change, growing population and water shortage scenarios that have been on them over the last years. One of the most employed methods to reduce leakage includes the installation of pressurereducing valves along the water distribution network and the utilization of pressure management schemes. Pressure management includes different types of control models, which are applied according to the requirements of each site. The most advanced and sophisticated scheme is critical point control, which relies on a flow signal from a measuring device or online communication between the critical point and the valve. This paper proposes the utilization of a seasonal autoregressive integrated moving average, or the SARIMA model, to correlate…
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Taxonomy
TopicsWater Systems and Optimization · Hydraulic flow and structures · Water resources management and optimization
