Prepare yourself for the AI for Water Network Intelligence & Leakage Detection course
Assess whether AI-generated alerts can help a water utility identify where to investigate possible leakage. This AI for Water Network Intelligence & Leakage Detection training course develops the judgement to interpret changes in flow and pressure, distinguish potential leaks from demand shifts or faulty readings, and weigh the evidence before recommending a field investigation. Participants consider how the quality of network measurements affects confidence in those decisions.
The course also examines how demand forecasts and digital twins can inform water distribution decisions under changing conditions. Participants evaluate whether forecasts are reliable enough to guide inspection priorities, how hydraulic assumptions affect scenario results and what field evidence can support an alert. They develop criteria for judging whether an AI model is suitable for operational use and how its performance should be reviewed as demand, assets or measurements change.
Highlights of this AI for Water Network Intelligence & Leakage Detection training course includes:
- Data readiness across district flow, pressure, meter and asset records
- Leakage-alert validation using hydraulic and field evidence
- Short-term demand forecasting and interpretation of uncertainty
- Digital-twin scenario evaluation for water distribution networks
- Model performance monitoring, operator review and escalation criteria
The learning journey
Course Summary Outline
Day 1
Water Network Data and AI Readiness
Day 2
AI-Based Leakage Detection and Anomaly Analysis
Day 3
Water Demand Forecasting and Network Intelligence
Day 4
Digital Twins, Model Validation and Operational Decisions
Day 5
AI Implementation Readiness and Performance Assurance
Is This Course Right for You?
The AI for Water Network Intelligence & Leakage Detection training course is designed for utility professionals who assess network data, validate leakage alerts or guide the use of analytics in water distribution operations.
- Water Distribution Engineers
- Hydraulic Modelling Engineers
- Leakage Management Managers
- Water Network Data Analysts
- Water Utility Digital Transformation Managers
- Water Utility SCADA Engineers
- Non-Revenue Water Managers
- Water Infrastructure Asset Managers
- Water Network Monitoring Specialists
Course Summary
- Characterise physical leakage, apparent losses and non-revenue water without treating them as identical
- Assess SCADA, DMA flow, pressure, smart-meter, GIS and asset-record data sources
- Compare threshold alarms, statistical baselines and machine-learning anomaly methods
- Interpret night-flow changes, pressure transients and district-level balance indicators
- Build demand baselines using seasonality, weather, customer use and operational context
- Compare practical forecasting approaches and time-series validation methods
- Distinguish hydraulic models, operational digital twins and AI-supported analytics
- Integrate asset, sensor and network-model information for scenario evaluation
- Select pilot DMAs and define baseline leakage, alert and response metrics
- Define technology choices, data ownership, procurement and integration requirements
Want the full outline?
Key Learning Outcomes and Objectives?
The AI for Water Network Intelligence & Leakage Detection training course develops the ability to judge whether network data and model outputs can support utility decisions. Participants learn to assess the quality of leakage alerts, interpret forecasts under uncertain demand and compare digital-twin scenarios with hydraulic and field evidence. They also define measures for tracking performance and criteria for deciding when analytics require operator review or model reassessment.
- Assess the suitability of flow, pressure, meter and asset data for selected AI applications.
- Evaluate leakage-detection methods using precision, recall, false alerts and field evidence.
- Compare short-term demand forecasts and interpret their uncertainty.
- Evaluate digital-twin scenarios against hydraulic assumptions and operational constraints.
- Define operator review, escalation and model monitoring requirements.
- Assess readiness for operational use against baseline performance, field capacity and value.
The Excentra Learning Approach
Participants work with synthetic time-series data and simulated water distribution scenarios to interpret model outputs in context. They compare suspected leakage alerts with demand patterns, sensor behaviour and operating events to decide what evidence would justify further investigation.
They use model scorecards and simulated hydraulic scenarios to assess forecast uncertainty, alert quality and the limits of the available data. They bring the findings together in a data-readiness checklist, a model-performance scorecard and a workflow for prioritising alerts and routing them for operator review.
Six capabilities, and how far this course takes each one
Data Intelligence
Intelligent Monitoring
Document Intelligence
Workflow & Agent Design
Responsible Implementation
Business Transformation
Ready to take the next step?
Reserve your place, ask us a question, or arrange private training for your team.
Frequently Asked Questions
AI water-network intelligence uses statistical and machine-learning methods to interpret information from sensors, meters, asset records and network systems. It can help utility teams identify unusual flow or pressure patterns, forecast demand and prioritise locations for investigation. Engineers review the findings alongside hydraulic information and field evidence.
Yes. The course compares threshold alarms, statistical baselines and machine-learning methods using representative district data. Participants use measures such as precision, recall and false alerts to judge how often a model identifies relevant events, which events it misses and how much investigation work its alerts generate.
Familiarity with water-network operations, applied analytics or basic time-series concepts is helpful. The course focuses on interpreting model outputs and evaluating their relevance to utility decisions. Confirm the tools and any Python requirements with Excentra before registering.
Anomaly detection flags an unusual pattern, such as a rise in night flow or an unexpected change in pressure. Demand changes, sensor faults and operating events can also produce unusual signals. A suspected leak is assessed against other evidence, such as pressure records, operating logs and, where needed, field observations.
Yes. The course examines how digital twins combine network models and measurements to explore operating scenarios. Participants consider how model assumptions, sensor coverage and uncertainty affect the conclusions a utility can draw from a simulated change in demand or pressure.
Participants learn to look for changes in sensor behaviour, seasonal demand and false alert rates that may affect model performance. They consider how to use quality checks and performance measures to decide when a model needs investigation or retraining. They also define when operators should return to established procedures.
Yes. Excentra can discuss scenarios relevant to your network, such as recurring night-flow alerts, incomplete pressure records or demand variability across districts. Synthetic or approved data can be used to reflect the team’s operating conditions. Excentra Discuss your utility’s requirements with Excentra.
Participants develop a data-readiness checklist, a model-performance scorecard and a workflow for prioritising leakage alerts. The checklist records which measurements are available and where gaps affect confidence. The scorecard and workflow set out how to assess model outputs, route alerts for review and decide which findings warrant field investigation.