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Active pressure control is the most effective strategy for reducing leaks in drinking water distribution networks. By precisely regulating the pressure in each hydraulic sector, the volume of water lost due to passive leaks is minimized, the network’s service life is extended, and consumption is red
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Identify and reduce non-revenue water through district metering, accurate bulk metering, pressure monitoring, and intelligent leak detection. Turn network data into actionable insights to recover flow, reduce water losses, and optimize hydraulic operations.
ViewEfficient management of water and industrial infrastructure rests on a simple but demanding premise: you cannot control what you don't measure. For decades, many utilities and industrial plants relied on manual rounds, point-in-time readings, and paper reports to understand how their networks behaved. Today, the availability of precision instrumentation, reliable industrial communications, and SCADA platforms has made a different model possible: real-time, data-driven operations.
How It Works
The principle is straightforward. Field sensors — electromagnetic flow meters, pressure and level transmitters, water quality analyzers — continuously capture physical variables. This information is transmitted via open protocols such as Modbus RTU or EIA-485, through RTUs and communication gateways, to a central SCADA platform. From there, operators and engineers visualize the state of the entire network, receive automated alarms when deviations occur, and access historical data that helps identify patterns before they become costly failures.
Business Value
Sectorization through District Metered Areas (DMAs) is one of the most direct applications of this approach: by isolating and metering specific network sectors, utilities can accurately calculate Non-Revenue Water (NRW) and prioritize interventions where the return is greatest. At pumping stations, real-time pressure and flow monitoring allows equipment operation to be adjusted to reduce energy consumption without compromising service. At treatment plants, integrating water quality variables with the SCADA system supports regulatory compliance and reduces operational risk.
Operational Benefits
Key advantages include: faster incident response times, predictive maintenance based on real trends rather than fixed schedules, reduced non-revenue water, optimized energy consumption in pumping operations, and increased availability of critical assets. These results don't depend on a single technology but on the coherent integration of instrumentation, communications, and visualization.
Integration and Scalability
An additional advantage of these architectures is their ability to integrate with existing systems: GIS for asset georeferencing, CMMS for maintenance management, and reporting platforms for regulatory authorities. Because they rely on open protocols and modular architectures, these solutions can scale from a pilot covering a few DMAs to full coverage of a municipal network, without requiring a full replacement of existing infrastructure.
Efficiency and control are not a final destination but a capability built progressively: every sensor, every telemetry point, and every configured alarm adds visibility and reduces operational uncertainty. If your organization wants to assess where it stands in this process and which steps would have the greatest impact, Marfel can help analyze your current infrastructure and define an implementation path suited to your needs.