Intelligent Water Infrastructure · Hydraulic Modeling · Digital Twins · Flood Intelligence
Water Intelligence · Modeling · Forecasting

Turn water data into foresight.

Aqualitix is a specialist water-intelligence consultancy. We help utilities, municipalities, and authorities see their networks clearly, anticipate what's coming, and act earlier — uniting calibrated hydraulic models, digital twins, and predictive analytics across drinking water, wastewater, and stormwater.

Digital Twin · NetworkLive
Model StateCalibrated
Non-Revenue Water12.4% 
Flood Risk IndexLOW
Radar Rainfall0.8 mm/hr
Forecast — Next 24h Inflow
Disciplines
WaterWastewaterStormwaterHydrologyData ScienceGIS & SCADA
Built on standards
AWWA M36IWA Water BalanceEPA EPANET / SWMMISO 55000Water Research Foundation
20+
Years of Consulting Experience
P.E.
Professional-Engineer-Led
6
Core Capabilities
100%
Independent & Vendor-Neutral
Experience meets intelligence

Two decades of water engineering, reengineered for the digital age.

Aqualitix pairs more than 20 years of professional engineering and consulting experience with a new generation of digital tools — so the judgment earned over decades in the field now drives the models, twins, and forecasts your decisions depend on.

We've spent careers designing, modeling, and operating water, wastewater, and stormwater systems. That hard-won understanding is what separates a model that merely looks right from one that behaves like the real network.

As a professional-engineer-led practice, every analysis carries accountable engineering judgment. And because we're independent and vendor-neutral, our only goal is the outcome that's right for your system — not a product to sell.

See How We Work
Data → Digital Twin → Decisions
SCADA
Sensors
GIS
Radar
Billing
Digital
Twin
Forecasts
Flood Alerts
NRW Insight
Capital Plans

What we do

Six connected capabilities — modeling, monitoring, and prediction — that turn scattered operational data into decisions you can defend.

Hydraulic Modeling

Build and calibrate accurate water, wastewater, and stormwater network models that mirror real system behavior.

  • Water · sewer · stormwater
  • Steady-state & dynamic
  • Calibration & validation

Digital Twin Implementation

Connect live data to your model so the network gains a continuously updated virtual counterpart for real-time insight.

  • SCADA & sensor integration
  • Live state estimation
  • Scenario simulation

Predictive Analytics

Turn operational data into forward-looking insight — anticipating demand, failures, and performance before they happen.

  • Demand forecasting
  • Anomaly & failure detection
  • Asset risk scoring

Flood Forecasting

Model and predict flood behavior across catchments and networks to give operators lead time when it matters most.

  • Catchment & 1D / 2D modeling
  • Real-time forecasting
  • Lead-time alerts

GARR & Flood Warning

Fuse radar and rain-gauge data into high-resolution rainfall fields that drive accurate, timely flood warnings.

  • Radar–gauge fusion
  • High-resolution rainfall
  • Early-warning triggers

Non-Revenue Water (NRW)

Locate and quantify physical and commercial water losses — then build a roadmap to recover them.

  • Water balance & DMA analysis
  • Leakage localization
  • Loss-reduction roadmap

Capabilities in depth

What each capability does in practice — and the value it creates for the utilities and counties we serve. Select any capability to expand its applications and benefits.

01

Hydraulic Modeling

Calibrated hydraulic models are the digital foundation beneath every confident water decision. We build steady-state and extended-period models of distribution, collection, and stormwater systems, then calibrate them against field pressures, flows, and tank levels until the model behaves like the real network.

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Applications

  • Master planning & capacity analysis
  • Fire-flow and pressure-zone design
  • Pump scheduling & energy studies
  • Water-age & disinfectant-residual analysis
  • Capital-improvement prioritization
  • Hydraulic review of new development and annexation
  • Pipe and valve criticality (weakest-link) analysis
  • Surge and transient (water-hammer) studies

Benefits to utilities & counties

  • Right-size capital — avoid oversized pipes and pumps
  • Defend rate cases and grant applications with evidence
  • Meet pressure and fire-flow obligations reliably
  • Cut pumping energy costs
  • Absorb new growth without degrading service
02

Digital Twin Implementation

A digital twin links your calibrated model to live SCADA and sensor feeds, giving the network a continuously updated virtual counterpart. Operators see estimated pressures and flows everywhere — not only where meters exist — and can rehearse changes before touching a valve.

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Applications

  • Real-time state estimation network-wide
  • Operator decision support & what-if testing
  • Incident response — main breaks, contamination, outages
  • Near-real-time energy and pump optimization
  • Operator training simulator
  • Validation of plans against live conditions

Benefits to utilities & counties

  • Faster, better-informed incident response
  • Fewer truck-rolls and less field guesswork
  • Operational knowledge retained as staff retire
  • Safer testing of operating changes
  • One shared source of truth across engineering and operations
03

Predictive Analytics

Predictive analytics converts the data you already collect into foresight. We pair statistical and machine-learning methods with hydraulic context to forecast demand, surface anomalies early, and score asset risk — so teams act before failures rather than after.

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Applications

  • Short- and long-term demand forecasting
  • Leak and burst detection from flow & pressure
  • Equipment and pump failure prediction
  • Pipe-break likelihood and asset-risk scoring
  • Capital renewal prioritization
  • Water-quality excursion early warning
  • CCTV defect detection with machine learning
  • Life-cycle cost and optimal replacement timing

Benefits to utilities & counties

  • Move from reactive to planned maintenance
  • Aim renewal dollars at the highest-risk assets
  • Reduce emergency repairs and overtime
  • Extend asset life with condition-based work
  • Strengthen resilience and regulatory compliance
04

Flood Forecasting

We model how rainfall becomes runoff and how runoff moves through catchments, channels, and collection systems — coupling hydrology with 1D/2D hydraulics — and drive those models with live and forecast rainfall to buy operators lead time.

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Applications

  • Catchment and urban-drainage modeling (1D/2D)
  • Real-time flood forecasting and inundation mapping
  • Sanitary and combined sewer overflow prediction
  • Reservoir and detention operations support
  • Emergency-response and evacuation planning
  • Floodplain and resilience planning

Benefits to utilities & counties

  • Lead time to protect people, property, and assets
  • Fewer and smaller overflow events and violations
  • Better-targeted detention and green-infrastructure spend
  • Stronger FEMA and grant positioning
  • Coordinated response across public works and emergency management
05

GARR & Flood Warning

Rain gauges are accurate but sparse; radar is spatially dense but biased. Gauge-Adjusted Radar Rainfall fuses both into a high-resolution rainfall field that captures where it actually rained — the single biggest driver of flood- and overflow-model accuracy.

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Applications

  • Radar–gauge bias correction and merging
  • High-resolution rainfall fields for modeling and reporting
  • Real-time storm tracking and warning triggers
  • Sewer-overflow attribution and regulatory reporting
  • Wet-weather inflow & infiltration analysis
  • Post-storm forensic review

Benefits to utilities & counties

  • More accurate, defensible flood and overflow forecasts
  • Earlier, more reliable public warnings
  • Fair, data-backed wet-weather reporting to regulators
  • Cleaner separation of rainfall-driven vs. structural I&I
  • Confidence in storm-related capital decisions
06

Non-Revenue Water (NRW), in detail

Non-Revenue Water is the gap between the water a utility produces and the water it actually bills. Following the AWWA / IWA water balance, we separate apparent (commercial) losses from real (physical) losses, value what each is worth, and build a costed roadmap to recover it. Here is how that balance breaks down — and how each component is attacked.

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Where the water goes · system input volume = 100% (illustrative)
65%Revenue water
5%Unbilled
9%Apparent
21%Real loss
Billed — revenue water Non-Revenue Water — 35%
Revenue water (billed authorized) Unbilled authorized (firefighting, flushing, mains) Apparent losses (commercial) Real losses (physical leakage)
Apparent losses — commercial
  • Unauthorized consumption (theft, illegal connections)
  • Customer-meter under-registration & aging meters
  • Data-handling, estimation & billing errors

Cheap to fix and valued at the full retail tariff — usually the fastest payback.

Real losses — physical
  • Leakage on transmission & distribution mains
  • Leakage & overflows at storage tanks
  • Leakage on service connections up to the customer meter

Valued at the cost to produce & deliver water — and the supply you avoid building.

Performance indicators we report
NRW % by volume
Share of system input that never becomes revenue — the headline number, but only part of the story.
NRW by cost
Losses valued in dollars: apparent at retail tariff, real at marginal production and avoided-supply cost.
ILI = CARL ÷ UARL
Infrastructure Leakage Index — benchmarks real-loss performance fairly across systems of any size.
Economic level
The point where the next dollar of leak control equals the value of the water it saves.
Four pillars of real-loss management
Pressure managementTrim excess pressure to cut both leak flow and the rate of new breaks.
Active leakage controlFind hidden leaks fast through DMA monitoring and step-testing.
Speed & quality of repairsShorten leak run-time and fix it once, correctly.
Asset management & rehabRenew the mains and connections that keep failing.

Applications

  • Top-down and bottom-up water audits (AWWA M36)
  • District Metered Area (DMA) design and minimum-night-flow analysis
  • Apparent-loss reduction — metering, data handling, unauthorized use
  • Real-loss reduction — pressure, leak control, repairs, rehab
  • Leakage localization and step-testing
  • Economic-level-of-leakage and intervention prioritization

Benefits to utilities & counties

  • Recover revenue without producing more water
  • Defer costly new supply and treatment capacity
  • Lower energy and chemical costs tied to lost water
  • Improve drought readiness and resilience
  • Benchmark year over year with the ILI
  • Back rate cases and grants with audited data
All proportions and indices above are illustrative. Every engagement is built from your own audited data, compiled in the AWWA Free Water Audit Software with data-validity grading so progress can be tracked year over year.
07

Pump-station predictive maintenance (PdM)

Pump and lift stations are the hardest-working, most failure-prone, and most energy-hungry assets in a water system — a failed station can mean a sewer overflow or a boil-water notice. We use condition data and analytics to catch problems weeks before they become emergencies.

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Signals we monitor
Vibration & bearing temperatureEarly indicators of bearing wear, imbalance, and misalignment.
Motor-current signatureAn electrical fingerprint that exposes motor and driveline faults.
Pump efficiencyEnergy per volume pumped, trended to flag performance decay.
Run-time, starts & cyclingExcessive cycling that shortens motor and contactor life.
Wet-well level & flowOperating-point drift and developing capacity problems.
Seal leakage & power qualityConditions that precede seal failure and motor stress.
Failure modes we catch early
Bearing wearSeen first in rising vibration and temperature trends.
Impeller wear & cloggingRag-ups and abrasion that sap efficiency and capacity.
CavitationDamaging low-suction conditions caught in the signal.
Shaft misalignmentVibration patterns that accelerate seal and bearing wear.
Mechanical-seal failureLeakage trends flagged before water reaches the motor.
Motor & VFD faultsWinding degradation and drive issues from current data.
From reactive to predictive
01ReactiveFix it when it fails.
02PreventiveService on a fixed schedule.
03Condition-basedAct on measured condition.
04PredictiveAnalytics forecast the failure.
05PrescriptiveThe system recommends the fix.

What you get

  • Fewer unplanned failures — and the overflows they cause
  • Lower pumping energy, your single biggest power cost
  • Longer pump and motor life
  • Planned maintenance instead of after-hours emergencies

How it fits

  • Feeds directly from your SCADA and sensor telemetry
  • Shares the digital twin and analytics already in place
  • Prioritizes stations by criticality and consequence
  • Protects against overflow-related permit violations
08

Regulatory compliance

Water and wastewater utilities answer to a dense web of federal and state regulators. We provide the engineering analysis and documentation that supports permits, consent decrees, and reporting — turning an obligation into a defensible plan.

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Clean Water Act & NPDES
Discharge permits & effluent limits

We model wet-weather capacity and system performance to provide the engineering basis for permit applications, capacity certifications, and reporting.

SSO / CSO consent decrees
Overflow reduction & long-term control plans

We quantify overflow frequency and volume, evaluate gray- and green-infrastructure alternatives, and build defensible Long-Term Control Plans with progress reporting.

CMOM
Collection-system capacity & O&M

We deliver capacity-assurance analysis, risk-based condition programs, and operations-ready models that keep the system in a state of good repair.

Safe Drinking Water Act & Lead and Copper Rule
Water quality & service-line inventory

We support service-line inventory data and model water age and disinfectant residual to help protect distribution water quality.

America’s Water Infrastructure Act (AWIA)
Risk & resilience assessment, emergency response

Our resilience stress-tests and criticality analysis feed your Risk & Resilience Assessment and Emergency Response Plan.

MS4 stormwater permits & TMDLs
Municipal stormwater & pollutant loads

We model runoff, evaluate best-management practices and green infrastructure, and quantify the load reductions your permit requires.

We also compile and validate annual AWWA M36 water-loss audits for state non-revenue-water reporting. Aqualitix provides engineering analysis and documentation, not legal advice — we work alongside your regulatory counsel, not in place of it.

Risk-based asset management & capital planning

Buried pipes are long-lived and expensive to replace at the wrong moment. We turn condition, performance, and consequence data into a defensible, prioritized capital plan — the right work, in the right place, at the right time.

AM

From asset data to a defensible capital plan

Replace an asset too early and you waste years of useful life; too late and you invite failures, emergency costs, and service disruption. We score where each asset sits on that curve and build a multi-year program around it.

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How we score business risk exposure
Likelihood of failure
  • Age, material & vintage
  • Break & defect history
  • Soil, corrosion & pressure
  • Condition & CCTV inspection
×
Consequence of failure
  • Hydraulic criticality
  • Customers & services affected
  • Environmental & regulatory exposure
  • Repair & disruption cost
=
Business risk exposure

A single, comparable score that ranks every asset so the highest-value work rises to the top of the program.

Finding the optimal renewal timing
OPTIMAL RENEWAL WINDOW reactive repairs rise failure good condition ASSET CONDITION TIME / ASSET AGE
Illustrative. Condition holds, then declines ever faster. Total cost is lowest when renewal lands in the window before failure — not at the first sign of wear, and not after a break forces an emergency repair.
One asset-centric view
GISThe spatial system of record for every pipe, node, and valve.
Hydraulic modelCriticality and performance under today's and tomorrow's demands.
Work history (CMMS)Breaks, work orders, and cost — the real failure record.
InspectionCCTV, acoustic, and leak surveys, with ML to read defects at scale.

Applications

  • Likelihood- and consequence-of-failure scoring
  • Pipe-criticality and weakest-link analysis
  • Life-cycle cost and optimal-renewal-timing studies
  • Repair / rehabilitate / replace trade-off analysis
  • Multi-year, budget-constrained capital (CIP) prioritization
  • State-of-good-repair and level-of-service reporting
  • Network resilience and disruption stress-testing

Benefits to utilities & counties

  • Direct capital to where it measurably lowers risk
  • Defer or avoid premature replacements
  • Fewer emergency failures and their knock-on costs
  • A capital plan you can defend to boards and regulators
  • A repeatable, auditable basis for grant applications
  • A more resilient network that recovers faster from failures
RS

Stress-testing the network for resilience

Assets rarely fail in isolation. We simulate the disruptions that actually happen, measure how well the network absorbs the shock and keeps serving customers, and pinpoint where redundancy or hardening buys the most resilience per dollar.

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Disruption scenarios we simulate
Main break / burstA large pipe out of service during peak demand.
Pump or power failureLoss of pumping, or a whole station offline.
Source / treatment outageA supply or plant taken out of service.
Contamination eventIntrusion requiring isolation and flushing.
Seismic / extreme weatherSeveral correlated failures at once.
Fire-flow demand spikeSudden, concentrated high demand.

What we measure

  • Customers and critical facilities left without water
  • Pressure deficiency and how long it lasts
  • Segments isolated under each valve configuration
  • Time to detect, isolate, and recover service

What it reveals

  • The truly critical assets — your weakest links
  • Redundancy gaps and isolation-valve effectiveness
  • Root-cause factors behind repeat failures
  • Where backup or hardening pays back fastest

Water distribution & wastewater collection modeling

Pressurized and gravity networks obey different physics — and we model each with the method and standard it demands.

Water Distribution
Wastewater Collection
Flow regime
Water DistributionPressurized, full pipe — pumps & elevation head
WastewaterGravity, partially full — pipe slope
Governing physics
Water DistributionHazen-Williams & Darcy-Weisbach (energy loss)
WastewaterManning’s equation (open-channel flow)
What we evaluate
Water DistributionPressure & fire flow · demand peaking · water age · pump energy · pipe criticality
WastewaterDry- & wet-weather capacity · surcharge · overflows · inflow & infiltration
Core question
Water DistributionEnough pressure & fire flow, everywhere, under every demand?
WastewaterEnough capacity before surcharge & overflow in wet weather?
Key risks managed
Water DistributionLow pressure · leakage / NRW · water-age & quality
WastewaterSurcharge · sanitary & combined overflows (SSO/CSO) · I&I
Regulatory drivers
Water DistributionSafe Drinking Water Act · fire-flow (ISO / AWWA) · minimum-pressure rules
WastewaterClean Water Act & NPDES · SSO/CSO consent decrees · capacity (CMOM)
Modeling tools & standards
Water DistributionEPANET & OpenFlows WaterGEMS
WastewaterEPA SWMM & Autodesk InfoWorks ICM
What you get
Water DistributionCertified capacity · fire-flow compliance · energy & NRW savings
WastewaterFewer overflows · capacity assurance · a defensible, costed CIP
Water Distribution

Pressurized network modeling

Distribution networks live or die on pressure. We allocate demand, model pumping and head loss across the system, then stress-test it against the moments that matter — peak hour, fire flow, and outages.

Demand allocationPeak-hour & fire flowExtended-period simulationPump schedulingPressure-zone designWater age & qualityLeakage / NRW
TANK PUMP 646157605642 node pressure (psi) · amber = low
Wastewater Collection

Gravity collection modeling

Collection systems are about capacity, not pressure. We model flow depth, slope, and surcharge with Manning’s equation — then stress-test the network against the wet-weather inflow and infiltration that drive overflows.

GROUND surcharge PUMP STN force main gravity flow →
Gravity (Manning) flowCapacity (d/D) checksSurcharge & SSO riskInflow & infiltrationWet-weather modelingPump station & force mainHydraulic grade line
Dry weather
Wet weather
Sanitary base flow Infiltration Inflow (rainfall)
Wet-weather inflow & infiltration (I&I) can multiply flows several times over — the difference between spare capacity and a sanitary sewer overflow. Bar heights illustrative.

Predictive maintenance, to industry standard

Pump-station reliability has moved from fixed schedules to condition-driven, analytics-led intervention. We apply the standards-based, state-of-the-art practice the most advanced utilities now rely on.

The P–F interval · detect early, plan the fix (illustrative)
P · first detectable Analytics: vibration & MCSA Thermography Audible noise / heat F · functional failure P–F interval · the window to plan the fix CONDITION
Why it matters. The earlier a developing fault is detected, the longer the window to plan a repair rather than react to a failure. Analytics on vibration and motor current see trouble far sooner than heat or audible noise ever could.
From signal to action
01SenseVibration, current, flow & temperature on every critical pump.
02StreamEdge devices and SCADA deliver continuous telemetry.
03ExtractFFT spectra, motor-current signatures & efficiency trends.
04PredictML flags anomalies and estimates remaining useful life.
05ActPrioritized alerts and automated work orders.
Standards & methods we work to
ISO 17359 · condition monitoring ISO 13374 · data processing ISO 20816 · vibration ISO 13373 · vibration monitoring Hydraulic Institute RCM & FMEA Weibull / RUL analysis

Compliance as a continuous loop

Leading utilities have moved from once-a-year reporting to continuous, model-based, evidence-driven compliance. We help you operate that way — defensible today, and ready for the rules coming next.

The continuous-compliance loop · monitor → model → demonstrate → report → improve
01 02 03 04 05 Monitor Model & analyze Demonstrate Report Improve CONTINUOUS COMPLIANCE
Compliance becomes an ongoing operating discipline rather than a deadline scramble — each cycle leaves an auditable trail and a stronger position for the next permit term.
From reactive reporting to real-time assurance
01ReactiveReport after the fact; respond to violations.
02Periodic auditsScheduled checks and manual data pulls.
03Model-basedDemonstrate compliance with calibrated models.
04ContinuousAutomated monitoring and digital reporting.
05Real-time controlLive decisions that head off overflows before they occur.
Frameworks & tools we work to
EPA CMOM EPA Integrated Planning NetDMR e-reporting AWIA risk & resilience AWWA G480 ISO 24516 asset management Real-time control (RTC)

From data to decision

A connected workflow that takes you from scattered data to confident action.

01

Connect & Ingest

Unite SCADA, sensors, GIS, radar, and billing data into one trusted picture of the network.

02

Model & Calibrate

Build a hydraulic digital twin and calibrate it against real-world observations until it reflects reality.

03

Forecast & Detect

Predict floods, demand, and failures — and pinpoint exactly where water is being lost.

04

Optimize & Act

Translate insight into alerts, operating decisions, and evidence-based capital plans.

Engineering insight, made visible

How we turn raw data into decisions teams can act on.

Non-Revenue Water

Where the water goes

A water balance splits system input into what's billed and what's lost — the first step to recovering it.

Revenue 70%
Real 18%
8%
Revenue water Real losses Apparent losses Unbilled authorized
NRW today
30%
With Aqualitix
15%
Illustrative figures for explanation only.
Flood Forecasting

Buying time before the peak

Forecasting when flow will cross the flood threshold turns reaction into preparation.

Flood threshold Warning Peak ← lead time → FLOW
Illustrative hydrograph for explanation only.
Perspectives

Static models age. Twins don't.

A model calibrated once drifts from reality within months. Connecting it to live data keeps it honest — so every decision reflects the network as it is today, not as it was at handover.

The cheapest water is the water you stop losing.

Before funding new supply, most systems can recover a meaningful share of what they already produce. A rigorous water balance shows exactly where the losses are — and what each fix is worth.

Radar sees everywhere; gauges see truly.

Neither rainfall source is enough alone. Fusing them — gauge-adjusted radar rainfall — gives the spatial reach of radar with the accuracy of gauges: the difference between a guess and a usable forecast.

Methods & frameworks

The proven models and standards behind every Aqualitix engagement.

Digital Twin

How a water digital twin is built

Live data feeds a calibrated model; analytics turn it into foresight; and decisions flow back to the network — a continuous loop, not a one-off study.

04Applications & DecisionsDashboards · Alerts · Capital Plans
03Analytics & AIForecasting · Anomaly Detection · Optimization
02Hydraulic Model CoreCalibrated digital twin of the network
01Data FoundationSCADA · Sensors · GIS · Radar · Billing
live loop
Non-Revenue Water · AWWA Water Audit

The standard water balance

Every NRW program starts by accounting for every drop. We follow the AWWA / IWA water balance to separate what's billed from what's lost — and what each loss is worth recovering.

System Input Volumeown sources + imports
Authorized Consumption
Water Losses
Billed Authorizedmetered + unmetered
Unbilled Authorizedflushing · firefighting
Apparent Lossestheft · meter error · data
Real Lossesmains · storage · service lines
Revenue Waterbilled
Non-Revenue Waterunbilled authorized + losses
Structured to the AWWA M36 / IWA standard water balance. We compile audits in the AWWA Free Water Audit Software and report data-validity grading and the Infrastructure Leakage Index (ILI), so progress can be benchmarked year over year.
Predictive Asset Management

Target risk, not everything

We score every asset by likelihood and consequence of failure, then focus inspection and renewal where a failure would hurt most.

Likelihood of failure →
Act first
Consequence of failure →
Heat scale: low → severe. Illustrative.
Predictive Maintenance

Act inside the P–F window

Condition monitoring detects degradation early (P). The interval before functional failure (F) is the window to act — planned, not reactive.

P F ← P–F interval: time to act → CONDITION TIME
Classic P–F curve. Illustrative.
Analytics Maturity

Climbing from data to decisions

Most utilities sit at the descriptive rung. Aqualitix moves you up the curve — toward decisions made before problems occur.

What happened?

Descriptive

Reporting & dashboards

Why?

Diagnostic

Root-cause analysis

What's next?

Predictive

Forecasting & risk

What to do?

Prescriptive

Optimization & action

The outcomes that matter

Measurable results for the people who run water systems.

Recover Lost Water

Cut non-revenue water and defer costly new supply by finding the losses you can't see today.

Stay Ahead of Floods

Convert rainfall and network data into lead time, early warnings, and calmer response.

Extend Asset Life

Prioritize maintenance and renewal with risk-based, data-driven insight instead of guesswork.

Invest with Evidence

Justify and sequence capital spending with calibrated models, not assumptions.

What you receive

Tools your team will actually use.

Every engagement leaves behind living systems and clear roadmaps — not a report that sits on a shelf.

Calibrated ModelsValidated against field data
Live Digital-Twin DashboardsReal-time network state
Flood Forecast & WarningLead-time alerts & workflows
GARR Rainfall DatasetsHigh-resolution, bias-corrected
NRW Reduction RoadmapsPrioritized, costed actions
Predictive Maintenance InsightRisk-ranked assets

Who we work with

Partners across the water and infrastructure landscape.

Utilities

Water & Wastewater Utilities

Calibrated models, NRW recovery, and live digital twins that help utilities serve more customers from the assets they already have.

Public Sector

Municipalities & Public Works

Defensible capital planning and flood resilience for towns and cities balancing growth, aging pipes, and tight budgets.

Resilience

Stormwater & Flood Authorities

Catchment modeling, GARR rainfall, and early-warning systems that turn storms into managed, forecastable events.

Consulting

Engineering & AEC Firms

Specialist hydraulic modeling and analytics that slot into your project teams as an on-demand water-intelligence partner.

Industrial

Industrial & Campus Networks

Private water, fire, and process networks modeled and monitored to protect operations and control consumption.

Oversight

Regulators & Agencies

Independent, evidence-based analysis to evaluate performance, loss, and resilience across the systems you oversee.

Platforms & tools we work in

Aqualitix is independent and vendor-neutral. We are fluent across the industry's leading platforms and pick the right tool for your data, your team, and your goals — never the other way around.

Distribution hydraulics
EPANET · Bentley OpenFlows (WaterCAD, WaterGEMS, HAMMER)

Pressurized-network modeling for pressure and fire flow, water quality and age, pump energy, and surge / transient (water-hammer) protection.

Sewer, stormwater & flood
EPA SWMM · Autodesk InfoWorks ICM

Integrated 1D and 2D catchment modeling for collection systems, urban drainage, rivers, and floodplains — from planning through regulatory submission.

Asset management
Autodesk InfoAsset Manager · Autodesk InfoAsset 360 · AquaTwin Asset Pro

Unifying GIS, model, and maintenance records into one register for risk-based decisions on long, linear pipe networks.

GIS & digital twins
Esri ArcGIS Pro

GIS-centric modeling, asset business intelligence, and live digital-twin workflows that keep the model and the map in step.

Data & analytics
Databricks · SQL · cloud data platforms

Forecasting, anomaly detection, and custom analytics that reach beyond any single off-the-shelf application.

Standards & methods
AWWA M36 · IWA Water Balance · ISO 55000

The frameworks behind the tools — so results stay auditable, benchmarked, and defensible year over year.

All product names and trademarks are the property of their respective owners. Aqualitix is an independent consultancy and is not affiliated with, sponsored by, or endorsed by these vendors.

Frequently asked questions

The questions water teams ask first.

What is a digital twin for water infrastructure?+
It's a continuously updated virtual model of your network, fed by live data, that lets you see current conditions, test "what-if" scenarios, and predict what happens next — bridging your planning models and day-to-day operations.
What is Gauge-Adjusted Radar Rainfall (GARR)?+
GARR blends the broad spatial coverage of weather radar with the point accuracy of rain gauges to produce high-resolution, bias-corrected rainfall estimates across a catchment — the foundation of reliable flood forecasting and warning.
How does NRW analysis reduce losses?+
We build a water balance, break the network into measured district zones, and combine flow, pressure, and consumption data to localize leakage and metering losses — then prioritize the highest-value recovery actions.
Which platforms and tools do you work with?+
We're tool-agnostic and work across industry-standard modeling environments — including open frameworks such as EPANET and SWMM — and integrate with your existing SCADA, GIS, and data systems rather than locking you into one vendor.
Do you build flood early-warning systems?+
Yes — end to end, from rainfall ingestion and forecasting through threshold-based triggers to operator and public warning workflows tailored to your thresholds and procedures.
How do engagements begin?+
With a short scoping conversation about your systems, available data, and goals. Email us and we'll map out a clear, low-risk first step.

Ready to make your water data work harder?

Tell us about your network, your data, and what you're trying to solve — and we'll outline a path from where you are to actionable foresight.

Emailsupport@aqualitix.com
FocusWater Intelligence
EngagementsRemote & On-Site