Burst detection for networks and large sites

Burst detection for water networks, campuses and large sites.

Burst detection means spotting a sudden, large loss of water as it happens rather than after the damage. Aqueduct watches flow, pressure and the water balance for abnormal rate of change and night flow, flags a probable burst with its location, and isolates it on approval where a controllable valve is connected.

Blue pipework with a red valve wheel
Water balance · live
42.6Supply=36.1Floors+4.2RO+2.3Loss
Unaccounted loss rising on line CW-4
Demo data
Command history · RTU-2
Occupied mode07:00 · executed
Economizer on07:12 · executed
Lockout active07:13 · held
Demo data

Catch the burst as it starts, isolate it on approval, and confirm it held.

Rate of change

A burst looks different from a busy morning

  • Each line's own profile

    Every meter has an expected curve by hour, so morning peaks stop triggering false alarms.

  • Sharp change flagged

    A sudden jump far above the expected profile is flagged as a probable burst within minutes.

  • Pressure confirms it

    Pressure drops on the same line separate a real burst from a legitimate surge in demand.

Pipework and valves in a plant room
Water balance · live
42.6Supply=36.1Floors+4.2RO+2.3Loss
Unaccounted loss rising on line CW-4
Demo data
Isolation on approval

Close the right valve without driving out

  • Location from the balance

    The block or zone that stopped reconciling shows which section to isolate, not just that water is leaving.

  • Owner approval first

    Where a valve is connected through a LoRaWAN relay or field device, it closes only with owner approval.

  • Lockouts protect equipment

    New commands are held while an earlier command is still being acted on, so valves are not cycled.

Pipes with red valve wheels
Command history · RTU-2
Occupied mode07:00 · executed
Economizer on07:12 · executed
Lockout active07:13 · held
Demo data
Restore and record

Every step logged, every section confirmed

  • Command history

    Each isolation command, its time and whether it executed are recorded for review and insurance.

  • Flow confirms isolation

    Flow on the isolated section drops to zero and the rest of the balance closes again.

  • Back to baseline

    After repair, the line returns to its expected profile, and that profile becomes the new baseline.

Gloved hands turning a valve
September · verified
Water use intensity2.7 gal/ft²
Energy use intensity11.8 kWh/m²
Carbon184 t CO₂e
Export metrics
Demo data
Old way vs the Aqueduct way

Burst response, before and after Aqueduct

The old way
  • A flooded basement or a public call is the first alert.
  • Fixed high-flow alarms fire every morning and get ignored.
  • Teams know there is a burst but not which valve.
  • Someone drives out to find and close the valve by hand.
  • Nobody records when isolation happened or whether it held.
The Aqueduct way
  • The rate of change on the line is the first alert.
  • Alerts compare each line with its own expected hourly profile.
  • The balance shows which section to isolate.
  • Connected valves close remotely, with owner approval.
  • Command history records every step and flow confirms it held.
The problem

What a burst looks like without Aqueduct

A burst is found by whoever sees the water first.

01

Discovered by damage

A flooded basement, a sinkhole or a call from the public is the first alert.

02

Thresholds that cry wolf

A fixed high-flow alarm fires every morning at peak demand, so it gets ignored.

03

No idea which valve to close

Teams know there is a burst but not which section to isolate.

04

Slow, manual isolation

Someone has to drive out, find the valve and close it by hand.

How it works

How burst detection works

Powered by aQ WaterGuard, with Smart Controls where isolation is enabled.

01

Watch flow and pressure

Flow meters, pressure sensors and level sensors report into the water twin. On networks, data is read from SCADA and historians.

02

Compare to the expected curve

Each meter has an expected profile by hour. A sharp rate of change, or night flow well above its usual floor, separates a burst from normal peaks.

03

Locate it

The balance shows which block or zone stopped reconciling, and pressure drops narrow it further.

04

Isolate on approval

Where a valve is connected through a LoRaWAN relay or a field device controller, Aqueduct can close it once an owner approves. Every command is logged in command history.

05

Confirm and restore

Flow and pressure confirm the isolation held. After repair, the twin confirms the section is back to normal.

One incident, start to finish

One burst, start to finish

An illustrative incident on a campus service line.

Monitor

Building and campus flow meters report into the water twin overnight.

Measure

Flow on one service line jumps far above its expected night profile within minutes.

Identify

The rest of the campus balance is steady and pressure has dropped on that line. Aqueduct flags a probable burst in that section.

Act

The on-call owner approves isolation. The connected valve closes and the command is recorded. A ticket goes to the CMMS for repair.

Verify

Flow on the line drops to zero and the campus balance closes. After repair, the line returns to its baseline.

Problem, solution, impact

Problem, solution, impact

The problemHow Aqueduct solves itThe impact
Water

Bursts run until someone notices.

Rate-of-change and night-flow analysis on every metered line.

Less water lost per event, and loss stopped at the source.

Operations

Flood damage and emergency call-outs.

Location narrowed and isolation available on approval.

Damage contained and crews sent to the right section.

Energy

Pumps run hard to hold pressure against the burst.

Pumped and pressurized lines in the same view.

Wasted pumping stops when the burst is isolated.

Water droplet ripple
What we believe

The best burst response is the one that starts before the damage.

Talk to our team

What you get

Rate-of-change alerts

Sudden flow changes caught against each line's own profile.

Night flow tracking

The quietest hours used as the cleanest burst signal.

Location

The block, line or zone where the balance broke.

Isolation on approval

Valves closed through connected relays or field devices, only with owner approval.

Replace or integrate

Where it fits

Replaces or works with your
  • Fixed high-flow alarms
  • Water management systems
Integrates with your
  • SCADA
  • Historians
  • CMMS

On utility networks, Aqueduct reads data alongside SCADA and control stays with SCADA. On sites, control is used only where enabled and with owner approval.

Questions

Common questions

A leak is usually small and continuous. A burst is a sudden, large loss. Aqueduct catches both, but bursts are found from rate of change and leaks from the balance and night flow over time.

No. Isolation happens only where a controllable valve is connected and control is enabled, and only with owner approval. Every command is logged.

Detection and location still work. The alert and ticket tell your team which section to isolate by hand.

Yes. Aqueduct reads zone and pressure data from SCADA and historians. Control stays with SCADA.

See Aqueduct on your own facility.

Bring a site, a utility bill or a question. We will show you where the loss is.