University campus from above
Universities and schools

Campuses and classrooms with healthy air and bills that add up.

Lecture halls, labs, residences and school buildings on one platform. Air targets held in occupied rooms, water accounted for across the campus, and savings a board can audit.

Hall B · occupied
1,184 ppm CO₂
Ventilation adjusted
Demo data
CO₂ exposure · this week
Zones monitored24
Exposure38 zone hours
Worst zoneHall B
Demo data

Healthy air in occupied rooms, and bills that add up across the campus.

Classroom air

CO2 held to target while rooms are occupied

  • Air by room

    CO2 and particulates are read per lecture hall and classroom, against occupancy and the timetable.

  • Duration counts

    Exposure is tracked in zone hours, so a room stuck above target for a session is flagged.

  • Ventilation that responds

    Where control is enabled, with owner approval, ventilation is adjusted and the room is verified back in range.

School hallway with blue lockers
Hall B · occupied
1,184 ppm CO₂
Ventilation adjusted
Demo data
Term-time energy

Buildings that follow the timetable, not the boiler timer

  • Term-aware baselines

    Loads are baselined against weather and term time, so breaks and exam weeks have their own targets.

  • Empty buildings found

    Buildings running heat and cooling with nobody inside are flagged against occupancy, every evening and weekend.

  • Board-ready savings

    Every saving is verified at the meter and stated in money, ready for the board.

Top-down view of an open office floor
Site performance · this quarter
-8.4% vs expected
Weather normalizedBelow baseline
Demo data
A campus balance

Residences, labs and irrigation reconciled to the main

  • One campus balance

    Buildings, residences, labs and irrigation reconcile against the main supply, so losses have an address.

  • Faults routed

    A small team gets faults diagnosed and routed into the CMMS, so they fix rather than hunt.

  • Device health

    Connection rate and battery on every sensor show which device needs attention before data goes missing.

Water meter on yellow pipework
Device health
ERS-CO2 · Level 2, Zone 4
Connection rate99.2%
Battery3.61 V
Last reading1 min ago
Demo data
Old way vs the Aqueduct way

Running a campus, before and after Aqueduct

The old way
  • Stuffy classrooms are found when students complain.
  • Heating runs through holidays because the schedule never changed.
  • Campus water is one bill with no breakdown by building.
  • A small team spends its day hunting for faults.
  • Savings reported to the board are estimates.
The Aqueduct way
  • Classroom CO2 is tracked against occupancy, room by room.
  • Empty buildings are found against the timetable and corrected.
  • Campus water is reconciled building by building against the main.
  • Faults arrive diagnosed in the CMMS with the fix attached.
  • Savings reported to the board are verified at the meter.
Problems by outcome

What universities and schools teams are up against.

Water, energy, air and operations carry equal weight. Each one runs the same loop: monitor, measure, identify, act, verify.

01

Water: A campus balance that closes

Buildings, residences, labs and irrigation reconciled to the main.

02

Energy: Buildings that follow the timetable

Loads baselined against weather and term time. Empty buildings found.

03

Air: Classroom air, in range when occupied

CO2 and particulates per room, with ventilation response.

04

Operations: A small team, covering a large estate

Faults diagnosed and ticketed, so the team fixes rather than hunts.

Problem, solution, impact

Problem, solution, impact.

How Aqueduct resolves each problem for universities and schools, and what changes when it does.

The problemHow Aqueduct solves itThe impact
Water

Buildings, residences, labs and irrigation reconciled to the main.

A live water balance across meters and sub-meters localizes the loss, routes the fix and confirms it closed at the meter.

Loss found from the balance, not the bill, and every fix verified.

Energy

Loads baselined against weather and term time. Empty buildings found.

Weather-normalized baselines per building and asset show the waste in money; schedules and setpoints adjust where control is enabled.

Savings stated in money and confirmed at the meter, not estimated.

Air

CO2 and particulates per room, with ventilation response.

Air quality per zone, overlaid with occupancy, with ventilation raised when it matters and verified back in range.

Targets held during occupied hours, with the energy cost counted.

Operations

Faults diagnosed and ticketed, so the team fixes rather than hunts.

Faults diagnosed in plain language and routed into your CMMS with the fix; early signs of failure schedule maintenance first.

Fewer reactive call-outs and closures confirmed by the equipment.

One incident, start to finish

One incident, from first signal to verified fix.

An illustrative example of the flywheel on a typical site.

Monitor

Building meters, classroom air sensors, AHU and boiler points.

Measure

Baselines per building, for term and vacation.

Identify

Lecture Hall B above its CO2 target in the 10:00 session.

Act

Ventilation adjusted where control is enabled. Ticket routed for a stuck damper.

Verify

Back in range in 14 minutes. The record is kept.

Connected products

Four connected products on one data layer.

aQ WaterGuard

Find every leak and loss, fix it, prove it. Powered by aQ Core.

Learn more

aQ EnergySmart

Cut waste and demand, verified at the meter. Powered by aQ Core.

Learn more

aQ AirSafe

Hit air targets without burning energy. Powered by aQ Core.

Learn more

aQ PredictIQ

Faults fixed, failures prevented. Powered by aQ Core.

Learn more
Bright lounge with a garden view
What we believe

Students learn better in good air, and boards deserve numbers they can trust.

Talk to our team
Replace or integrate

Replace what should be replaced. Connect the rest.

Replaces or works with your
  • BMS and BAS
  • Energy management
  • Indoor air quality monitoring
  • Water management
Integrates with your
  • CMMS
  • Timetabling as an input

Three equal ways in: keep your BMS, replace it, or build Aqueduct in at design stage.

Who it is for

The questions each seat asks first.

Director of estates
“Can a small team run this?”
Sustainability officer
“Where do our rating numbers come from?”
School business manager
“What does it take off the utility bill?”
Standards and regulations

Standards and regulations we supply evidence for.

We supply the measured inputs. You run the program and file the report.

Building by building

A campus is a dozen building types under one budget

Each type of building uses energy, water and air differently, and fails differently. Treating them alike is why campus averages hide so much.

01 / 07

Lecture halls and classrooms

Rooms fill to capacity for an hour, then sit empty. Ventilation and conditioning that ignore the timetable either waste energy or let air quality fall.

  • CO2 per room against the ventilation target
  • Plant run hours against the timetable
  • Empty rooms conditioned through breaks found
Measured
CO2, temperature, occupancy
Target
ASHRAE 62.1 ventilation when occupied
Aqueduct
matches air and energy to the timetable
02 / 07

Research laboratories

Labs often run once-through air at high exchange rates, around the clock. They are commonly the most energy-intensive spaces on a campus.

  • Exhaust and supply fan energy per lab building
  • After-hours operation compared with occupancy
  • Freezer farms and process loads metered
Measured
fan energy, run state, plug loads
Target
the safety regime set by your lab managers
Aqueduct
shows the energy cost of each lab's operating regime
03 / 07

Residence halls

Residences run 24 hours with hot water, laundry and kitchens. Leaks and running fixtures go unreported because nobody pays the bill directly.

  • Water balance per residence and riser
  • Hot water plant energy against demand
  • Vacation periods checked for waste
Measured
water per riser, hot water energy
Target
use that follows occupancy
Aqueduct
flags leaks and empty-building waste
04 / 07

Libraries and archives

Long opening hours and collections that need stable humidity. Drift in conditions puts collections at risk and drives plant to work harder.

  • Temperature and humidity in collection areas
  • Plant energy against opening hours
  • Out-of-range alerts by zone
Measured
temperature, RH, plant energy
Target
your collection care band
Aqueduct
continuous record with alerts
05 / 07

Sports centers and pools

Pools combine heating, dehumidification, water treatment and make-up water. A leak or a stuck valve can run unnoticed for weeks.

  • Pool make-up water against evaporation and backwash
  • Dehumidification and heating energy
  • Event use compared with baseline
Measured
make-up, heating, ventilation energy
Target
stable conditions at lowest use
Aqueduct
reconciles pool water and flags loss
06 / 07

Dining halls and kitchens

Kitchen exhaust, refrigeration and dishwashing are heavy loads that often run before and after service.

  • Refrigeration energy and temperatures
  • Kitchen exhaust run hours
  • Dishwash and kitchen water metered
Measured
energy, cold room temperatures, water
Target
food safety bands and service hours
Aqueduct
alerts on temperature and out-of-hours loads
07 / 07

K-12 school buildings

Districts run many small buildings with few engineers. Classroom air and simple scheduling matter more than complex plant.

  • CO2 per classroom, against a ventilation target
  • Weekend and holiday running found across the district
  • One dashboard for every school
Measured
classroom air, building energy and water
Target
healthy classrooms, no empty-building waste
Aqueduct
district-wide view with per-school alerts
The academic calendar

Campus load follows the calendar. Baselines should too

A flat annual baseline makes a quiet summer look like savings and a busy exam week look like waste. Aqueduct separates the calendar from the weather.

PeriodWhat changesWhat Aqueduct does
Term timeFull timetable, peak occupancy in teaching buildingsBaselines per building for term weekdays, so real drift stands out
Exam weeksLibraries and halls open late, other buildings quietSeparates extended hours from waste in each building
Breaks and holidaysMost teaching buildings empty, residences partly occupiedFlags plant still running to term schedules
SummerConferences and research continue, teaching stopsCompares each building with its own summer baseline
WeekendsLow occupancy, some labs and sports in useFinds buildings that never drop to a weekend base load
EventsSports, graduation and open daysRecords event use so it does not distort the baseline
Campus infrastructure

The shared systems behind every building

Many campuses run their own utilities. Losses in shared infrastructure are invisible from inside any one building.

Central plant

Where it goes wrong

Chillers and boilers staged for peak load through the night and the holidays.

What we measure

Plant energy, flows and temperatures.

What Aqueduct does

Baselines plant against weather and the calendar.

District heating or steam

Where it goes wrong

Failed steam traps, leaking mains and condensate lost to drain.

What we measure

Steam or heat delivered per building against plant output.

What Aqueduct does

Balances plant output against buildings, so distribution loss has a number.

Chilled water loop

Where it goes wrong

Low delta T from buildings, so pumps move more water than the load needs.

What we measure

Building chilled water flow and temperatures.

What Aqueduct does

Ranks buildings by delta T so the worst offenders are fixed first.

Campus water mains

Where it goes wrong

Old underground mains that leak for months.

What we measure

Main supply against building meters.

What Aqueduct does

A live campus water balance, so loss is localized to a zone.

Irrigation

Where it goes wrong

Fixed schedules that water through rain.

What we measure

Irrigation meters with weather.

What Aqueduct does

Flags watering against rainfall.

Electrical distribution

Where it goes wrong

Peak demand set by coincident loads, and buildings with no sub-meter.

What we measure

Feeder and building meters.

What Aqueduct does

Breaks the campus peak down by building and feeder.

How it rolls out

From one building to the whole estate

Most campuses start with the buildings that cost most or worry the team most, then extend on the same model.

1
Weeks 1 to 2

Connect what exists

Read the BMS, utility meters and any campus energy system already in place. Map buildings, floors and zones in aQ Core.

2
Weeks 3 to 6

Baselines and the first list

Weather and calendar baselines for each metered building. Empty-building waste and out-of-hours plant usually appear first.

3
Weeks 6 to 12

Classroom air and gaps

Air sensors in priority classrooms and halls, and sub-meters where buildings share a meter. Installed with Atria between classes.

4
Months 3 to 6

Act and verify

Faults routed to the maintenance team, schedules aligned to the timetable where control is enabled, with owner approval, and savings verified at the meter.

5
Each year

Report to the board

Verified savings, water balance and air records gathered into the annual report the board and funders ask for.

Who gets what

What each part of the institution gets

Facilities director

A ranked list of faults and waste across the estate, so a small team works on the biggest problems first.

Learn more

Sustainability office

Measured energy, water and carbon per building, with weather-normalized trends for climate commitments.

Learn more

Finance and the board

Savings verified at the meter and stated in money, which an auditor can trace.

Learn more

Teaching and research

Healthy classroom air and stable lab conditions, with evidence when a room is out of range.

Learn more
Proof

Proven in live sites across sectors.

Anonymized results, verified at the meter.

Deployed
275+

sites in 21 countries run on Aqueduct.

Healthcare
22 hospitals

and 9 clinics in one of India’s top hospital chains.

Airports
Top 25

US airport running water intelligence on Aqueduct.

Real estate
20M+ sq ft

of commercial real estate under Aqueduct.

Customer names withheld. Every result is anonymized.
Questions

Common questions

Yes. CO2, particulates, temperature and humidity per room, with ventilation response and continuous records.

Yes. One platform across buildings, with existing meters and points first.

Yes. Savings are verified at the meter against a baseline modeled before the claim.

Baselines include the academic calendar as well as weather, so a quiet summer is not counted as a saving and a busy exam week is not counted as waste.

Yes. Fan energy, run state and plug loads are read from meters and the BMS. Lab safety settings stay with your lab managers, and Aqueduct only reports the energy cost of each regime.

Access is set by the institution. Many campuses share selected building data for teaching and research projects, under their own data policies.

It starts with what exists, then adds sub-meters where the balance shows a shared meter is hiding a problem. Until then, shared buildings are reported together, with the gap visible.

Yes. Plant output is balanced against the heat delivered to each metered building, so distribution losses from traps and mains get a number.

See Aqueduct on your own facility.

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