The Problem

Where Research Quality Meets Electrical Reality

Research-intensive universities combine high-density lab ventilation (200+ fume hoods with VFD-driven AHUs), on-campus data centres, and the most sensitive analytical instruments in any environment. Electron microscopes, NMR spectrometers, and mass spectrometers need voltage THD below 2–3%. But the campus network typically runs at 6–8% THDv.

10–25%
Typical energy savings on LV-addressable loads at a research-intensive university campus

What Causes It

Fume Hoods, Data Centres, and Instrument Sensitivity

Lab ventilation is the largest single load: 200 fume hoods requiring 6–15 air changes per hour, all on VFDs generating 30–50% current THD. Data centres add UPS rectifier harmonics at 25–35% THDi. The diverse building mix creates complex harmonic interactions across the distribution network.

Why electron microscopes are so sensitive + Read more− Close

Electron microscopes resolve features at the nanometre scale. Electromagnetic interference from harmonic currents in nearby cables creates fields that deflect the electron beam, causing image distortion and resolution loss. Even 50/60 Hz magnetic field levels of a few milligauss can degrade performance. Power quality optimisation reduces harmonic currents throughout the building, lowering the electromagnetic environment to levels compatible with high-resolution microscopy.

The Solution

How HarmoniQ Works

HarmoniQ’s narrowband tuning technology reduces harmonic distortion below 3% at research building boards while cleaning the entire campus network. Deployable at main intake or targeted at specific buildings.

HarmoniQ Filter

Reduces THD below 3% at research buildings, creating the clean electromagnetic environment electron microscopy, NMR, and mass spec require. Extends data centre UPS battery life by 30–50%.

HarmoniQ Filter
HarmoniQ Alpha

Protects research equipment from voltage disturbances caused by ventilation VFDs and chiller cycling across the multi-building campus.

HarmoniQ Alpha
HarmoniQ Booster

Corrects campus-wide power factor from 0.78–0.90 to 0.98+. Deployable at main intake or building level.

HarmoniQ Booster

The Impact

What This Means for Your Campus

Savings SnapshotResearch-intensive campus — 25,000 students, 40 buildings, $10.8M annual cost
MetricBeforeAfter HarmoniQImprovement
Power factor0.820.98+19.5%
Voltage THD6.2%2.6%−58%
Annual electricity cost$10,800,000$9,700,000−$1,100,000
Want to know the full picture?

Every facility is different. Our engineers will model the exact savings, deployment costs, and timeline for your specific site — get in touch for a site assessment.

Beyond the Bill

Research Quality, Equipment Life & Net Zero

Cleaner power means better research instrument performance, extended UPS battery life (30–50%), and HVAC motors lasting 20–35% longer across 40+ buildings.

Annual reduction of 494 tonnes CO₂ — equivalent to planting roughly 24,000 trees, and supporting university net-zero commitments (most targeting 2030–2035).

Zero campus disruption
Installs in parallel with no power interruptions to lectures, labs, or research facilities. Phased rollout keeps impact measurable at every stage.

How It Works

Three Steps. Zero Disruption.

1
→
Assess
Our engineers audit your electrical network and identify exactly where energy is being wasted.
2
→
Install
HarmoniQ deploys in parallel at your switchboard — no shutdowns, no disruption, no risk.
3
→
Save
Savings start from day one, verified in real time through our live monitoring portal.

Common Misconceptions

What We Hear — and the Reality

Myth
“We already have dedicated clean power circuits for our research instruments.”
Reality
Dedicated circuits help with isolation but don’t eliminate harmonics from the shared distribution network. Harmonic currents flow through transformers and cables regardless of circuit separation. If the building’s THDv is 6%+, your “clean” circuits are receiving 6%+ THDv. Only active harmonic filtering at the distribution level solves this.
Myth
“Our estates team would have flagged this if it were a problem.”
Reality
Power quality is rarely measured in university estates management. Standard energy monitoring tracks kWh and cost, not THD and power factor. Research staff complain about instrument performance to their department, not estates. A power quality audit typically reveals significant savings potential that’s been invisible to both teams.
Myth
“A 40-building campus is too complex — this would take years to deploy.”
Reality
HarmoniQ can be deployed in phases — start with the highest-impact buildings (research labs, data centre, central plant) and expand. Each building installation takes 1–2 weeks. Many universities start with 3–5 buildings to prove savings, then roll out campus-wide within a year.