Vibration Analysis · Ireland
Bearings developing defects. Shafts running out of balance. Misalignment building before it becomes damage. Every rotating machine has a vibration signature. Continuous wireless IoT monitoring turns that signature into early warning.
A quarterly inspection visit captures one reading per 90 days. Between visits, imbalance builds, bearing wear progresses, and misalignment worsens. The fault is found when it is already expensive. Continuous wireless IoT monitoring changes that entirely.
Quarterly or monthly rounds produce a single data point. Every hour between visits is a blind spot where deterioration continues undetected.
Without continuous data there is no trend to act on. You cannot see whether vibration is stable, slowly rising, or accelerating toward failure.
By the time a fault shows up in a manual inspection, it has typically been developing for days or weeks. Repair cost and downtime duration are already high.
Sensors mount magnetically on the motor housing while it is running. Data travels wirelessly via LoRaWAN across the factory floor to the gateway. The Lumina+ platform processes and displays live condition data, alarms, and forecasts.
Magnetic mount. Motor never stops.
One covers an entire factory floor

Live data, zone alarms, forecasts
Every deployment runs the same wireless IoT hardware. The analytics layer is what you choose.
Five independent detection methods running simultaneously, every measurement.
Everything in Standard, plus a machine learning model trained on each asset individually.
Faults detected
Designed for rotating machinery between 600 and 15,000 RPM. Wireless IoT sensors mount magnetically on the asset housing and can be installed during a normal production shift without stopping the machine.
The primary target. Bearing wear, rotor issues, and mounting looseness all produce measurable changes in vibration level and kurtosis well before mechanical failure.
Impeller wear, seal deterioration, and shaft misalignment cause measurable increases in overall vibration and kurtosis. Sensor mounts on the pump casing or motor bearing housing.
Highly susceptible to imbalance from fouling, build-up, and blade damage. Rising velocity RMS on one axis is typically the first indicator of mass accumulation on a blade.
Rotary screw and centrifugal compressors. Bearing deterioration and rotor unbalance tracked through overall vibration trending and kurtosis with empirically configured thresholds.
Baseline deviation and kurtosis are the primary signals. Gear tooth damage produces impulsive vibration that kurtosis catches early. Thresholds configured above standard ISO values to account for normal gear mesh forces.
Drive motors and head and tail pulley bearings monitored simultaneously. Distributed sensors across a conveyor identify which specific bearing has started to deteriorate.

Four manufacturing sites across Ireland, the USA, Mexico, and the UK. Lumina deployed wireless vibration monitoring across rotating machinery at each facility: sensors mounted directly on motors, pumps, and compressors, LoRaWAN connectivity, and anomaly detection tuned per asset type. No production stoppages during installation at any site.
Read the full case study
Lumina's IoT condition monitoring deployment at Sport Ireland's National Aquatic Centre detected a boiler fault on a Saturday morning, preventing total heating loss at one of Ireland's busiest sports facilities.
Read the Sport Ireland case studyFind out what your machines are telling you.
A 30-minute call is all it takes. We'll walk through your rotating assets, identify the highest-risk machines, and outline what a wireless vibration monitoring deployment would look like.