Runway lights and a landing aircraft in fog
Case studies
Aviation ยท United States
A top 25 US airport

A top 25 US airport live on Aqueduct in two weeks.

A top 25 US airport connected 5,000 meter points across 2M+ sq ft of aging, mixed infrastructure to Aqueduct without rip and replace. It went live in two weeks and surfaced a major leak right away.

2 weeksfrom start to live
5,000meter points connected
2M+ sq ftof airport facilities
24/7monitoring of a campus that never closes
The story

For an operations leader, the case is one line: value arrived in two weeks from equipment the airport already had.

Air traffic control tower
Terminals in use around the clock.
Empty baggage hall in a modern terminal
Every point mapped to a zone.
Aerial view of rooftop chillers
Legacy plant read as it is.
Business challenge

Water spread across a campus that never closes

Water serves terminals, concourses, restrooms, food service and plant rooms. Much of the infrastructure was twenty years old and came from different vendors, and meters were read by hand, so a leak could run for months before it showed in the numbers.

A campus that operates 24/7 could not stop for new infrastructure.

Solution we offered

A live water balance over the systems already in place

Aqueduct read the existing meters as they were and mapped each point to its terminal, floor and zone in aQ Core.

aQ WaterGuard reconciles supply against use and learns normal flow for each area. Anything outside that pattern goes straight to the facility team that owns the area.

Our approach
  1. 01

    Map the campus

    Terminals, floors and zones are set up so every point belongs to a place.

  2. 02

    Connect what exists

    Legacy meters are read over the protocols they already speak, such as Modbus, BACnet, M-Bus, pulse and LoRaWAN.

  3. 03

    Balance and baseline

    The water balance closes, and normal flow is learned area by area.

  4. 04

    Detect and route

    Anomalies reach the owning team at any hour, with the location attached.

What we deployed
LayerWhat we deployed
HierarchyCampus, terminals, floors and zones in aQ Core.
MeteringExisting points read as they are, with device health scored.
WateraQ WaterGuard balance and flow baselines.
ResponseAlerts routed by area to the facility team.
Outcomes

A leak found at go live

The first finding arrived at go live: a major leak that manual reads would have missed for months, found from infrastructure the airport already owned and with no downtime for the terminals. A silent or faulty meter now shows up as a data problem rather than a false all clear.

What comes next

The same aQ Core layer can carry energy and indoor air next: aQ EnergySmart for the central plant, aQ AirSafe for the terminals, and Smart Controls where control is enabled, with owner approval.

Questions

Common questions

No. Existing meters of mixed age and make were connected in their native protocols, and nothing had to be removed or rewired. That kept terminals running throughout and is the main reason the go-live took two weeks. See pulse counters.

The facility team that owns the terminal, floor or zone where the flow changed. Every meter point is mapped to a place in aQ Core, so an alert at 3 AM arrives with its location and the right owner. See aQ Core.

By comparison with each area's expected flow. Once the balance closed, one area showed sustained flow far above its normal, which crews traced to a major leak on the first day live. Device health scoring keeps a faulty meter from posing as a leak. See leak detection.

It applies wherever a large campus has mixed, aging meters that already report. The path is the same: map the hierarchy, read what exists, close the balance, then route anomalies by area. The two week timeline depended on existing meters being readable. See airports.

See Aqueduct on your own facility.

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