Applications

From coast to coast, for the equipment that cannot stop.

Logistics and distribution, manufacturing, municipalities, telecom and data centres — coast to coast in Canada. Whatever equipment could cause downtime or needs to be managed more efficiently, that is where IoT Octopus goes to work.

Who we work with

Five kinds of operation. One way to know what every machine is doing.

Different sectors, the same need: equipment that reports its own health, maintenance need, energy and uptime — and a team that hears about it first.

Logistics

Sortation and distribution, coast to coast in Canada

Multi-level sortation lines: one Octopus per section, every critical component watched.

Manufacturing

Manufacturing companies

Motors, pumps, compressors, ovens, CNC machines and the lines that depend on them.

Municipalities

Municipal facilities

Pump stations, blowers, arena and pool plant, HVAC — the equipment a community counts on.

Telecom

Telecom operators

Cooling, power and backup equipment at sites that must stay on.

Data centres

Data centres

Air handling, chillers, cooling pumps and power distribution behind every rack.

Results

What it has meant for our customers.

IoT Octopus is in commercial use across Canada. The equipment is different in every case; the outcomes rhyme.

Stops avoided

Downtime that never happened

Changes seen early enough to plan the work — on lines and equipment where a stop would have cost, in some cases, hundreds of thousands of dollars.

On time

Product and services delivered on time

Shipments that left on schedule, services that stayed on, programs that ran — because the equipment behind them kept running.

Reputation

A reliable, on-time partner

Our customers' own customers keep seeing what matters to them: delivery on time, every time.

Efficiency

Running costs under control

Equipment running when it should, maintenance done when it is needed, energy use that is seen rather than guessed.

Several case studies, across sectors, stand behind these statements. We keep them confidential by default and are happy to go through them in detail with you — let us know if you are interested.

The equipment behind every operation

Seven familiar assets — and what each knows about itself once IoT Octopus is fitted.

Pump sets, conveyor sections, curing ovens, air handlers, machining centres, compressors, chillers. The list does not end here: gearboxes, blowers, hydraulic units, mixers, cranes, sortation lines, data-centre power. Any mix of sensors, chosen for the asset. Status shown is illustrative.

Illustration of a motor-driven centrifugal pump with three external sensor points connected to the IoT Octopus hub Side view of an electric motor coupled to a centrifugal pump on a common baseplate. Small sensor pucks sit on the motor drive-end bearing and the pump bearing housing, and a current clamp sits at the motor terminal box. Thin leads run from each sensor to the hub on the left. Illustrative; sensors and placement depend on the application. VIBRATION · TREND CONTEXT Feed pump P-12 · on duty Bearing changed Mar 2026 HISTORY finding added
IoT Octopus hub
HealthSteady
PowerOn target
MaintenanceChange flagged · review
123
Illustrative setup and example readings · not customer results
  1. 1HealthSteady
  2. 2PowerOn target
  3. 3MaintenanceChange flagged · review

Pump and motor set

Knows its bearings, its load and its running hours. Tells you when the pump is working harder than it should — before the seal or the bearing gives.

  • Health — vibration and temperature at the bearings against its own normal
  • Energy — load and, with metering, kW and kWh per shift
  • Uptime — running, idle, cycling, down
  • Maintenance — a change flagged for review, planned before it becomes a failure
Illustration of one belt-conveyor section with a geared drive and four external sensor points Side view of a belt conveyor section on legs: a head pulley at the left driven by a gearmotor underneath, idler rollers along the carrying strand, a tail pulley at the right, pillow-block bearing housings at both pulley shafts and two parcels on the belt. Sensor pucks sit on the gearbox, the head-pulley bearing housing and the tail-pulley bearing; a current clamp sits at the drive motor supply. Illustrative; sensors and placement depend on the application.
IoT Octopus hub
Head bearingWithin normal
GearboxSteady
Tail bearingRising · review
UptimeRunning 7.6 h of 8
1234
Illustrative setup and example readings · not customer results
  1. 1Head bearingWithin normal
  2. 2GearboxSteady
  3. 3Tail bearingRising · review
  4. 4UptimeRunning 7.6 h of 8

Conveyor section

Knows its drive motor, its gearbox and the bearing housings at both pulleys. One Octopus per section — so a bearing that starts to run warm becomes planned work, not a stopped line.

  • Health — vibration at the gearbox and temperature at the pulley bearing housings
  • Energy — drive load and, with metering, kW per shift
  • Uptime — running, idle, stopped, by shift
  • Team — a notice when a bearing, the belt or the drive changes
Illustration of a paint-line curing oven with an overhead conveyor and six external sensor points Side view of a tunnel curing oven on a paint line: an insulated tunnel with three heating zones, an overhead monorail conveyor carrying hung parts through it, a burner and exhaust stack on the roof, a recirculation fan unit on the roof and a chain-drive gearmotor at the exit end of the rail. Temperature pucks sit on each zone; vibration pucks sit on the recirculation fan motor and the conveyor drive gearbox; a current clamp sits at the fan motor supply. Illustrative; sensors and placement depend on the application.
IoT Octopus hub
Zone 1On target
Zone 2On target
Zone 3Drifting · review
Recirc fanNormal
Line speedSteady
12345
Illustrative setup and example readings · not customer results
  1. 1Zone 1On target
  2. 2Zone 2On target
  3. 3Zone 3Drifting · review
  4. 4Recirc fanNormal
  5. 5Line speedSteady

Paint-line curing oven

Knows its zone temperatures, its recirculation fans and the overhead conveyor carrying parts through it. Catches a zone drifting or a fan bearing changing before a batch has to be re-run.

  • Process — temperature in each zone against its set point
  • Health — vibration at the recirculation fan motors and the conveyor drive gearbox
  • Energy — burner and fans run against the shift schedule
  • Maintenance — fan bearings and the chain drive when the readings point to them
Illustration of an air-handling unit with a belt-driven fan and three external sensor points Side view of a rectangular air-handling unit on floor rails: a filter section on the left, a fan section with a guarded fan wheel in the centre, a belt-driven motor mounted on top at the right, and a supply duct leaving to the right. Sensor pucks sit on the fan bearing and the motor; a current clamp sits at the motor supply cable. Illustrative; sensors and placement depend on the application.
IoT Octopus hub
Fan bearingNormal
PowerAfter-hours run · review
TeamNotified · belt wear
123
Illustrative setup and example readings · not customer results
  1. 1Fan bearingNormal
  2. 2PowerAfter-hours run · review
  3. 3TeamNotified · belt wear

Fan and air-handling unit

Knows its belt, its motor and its hours. Flags drift before the building notices a comfort problem or the energy bill does.

  • Health — belt and bearing vibration, motor temperature
  • Energy — fans running after hours or against a blocked filter
  • Uptime — scheduled vs actual running time
  • Team — a notice when something needs a look, in plain language
Illustration of an enclosed CNC machining centre with four external sensor points Front view of an enclosed vertical machining centre: a cabinet with a viewing window showing the spindle head above a work table, a status light stack on the roof, a swing-arm control pendant on the right, a chip conveyor leaving the left side into a bin, and a coolant tank with its pump at the lower right. Sensor pucks sit on the spindle housing, the coolant pump motor and the chip-conveyor drive; a current clamp sits at the main supply. Illustrative; sensors and placement depend on the application.
IoT Octopus hub
SpindleNormal
Chip conveyorChange flagged · review
Coolant pumpWithin normal
UptimeIn cut 5.1 h of 8
1234
Illustrative setup and example readings · not customer results
  1. 1SpindleNormal
  2. 2Chip conveyorChange flagged · review
  3. 3Coolant pumpWithin normal
  4. 4UptimeIn cut 5.1 h of 8

CNC machining centre

Knows its spindle, its coolant pump and its chip conveyor — and how much of the shift it actually spent cutting.

  • Health — spindle vibration and temperature against its own normal
  • Uptime — in cut, idle, stopped, by job and by shift
  • Energy — power by job, with metering
  • Maintenance — coolant pump and chip-conveyor drive flagged when they change
Illustration of a tank-mounted reciprocating air compressor with three external sensor points Side view of a horizontal air receiver tank on feet. A two-cylinder compressor pump with cooling fins sits on top, belt-driven by an electric motor through a guarded flywheel. A pressure gauge and outlet valve sit on the tank. Sensor pucks sit on the compressor pump and the motor; a current clamp sits at the motor supply cable. Illustrative; sensors and placement depend on the application.
IoT Octopus hub
RuntimeCycling normal
PowerIdle 14% · review
HealthNo action needed
123
Illustrative setup and example readings · not customer results
  1. 1RuntimeCycling normal
  2. 2PowerIdle 14% · review
  3. 3HealthNo action needed

Air compressor

Knows its cycling, its temperatures and its energy. Shows when it runs outside its intended schedule — the most common hidden energy cost in a plant.

  • Health — head and motor temperature, vibration at the drive
  • Energy — idle running and short-cycling made visible
  • Uptime — duty and cycling by shift
  • Maintenance — valves and filters when the readings say so
Illustration of an air-cooled chiller with chilled-water pump and five external sensor points Side view of a packaged air-cooled chiller serving a data hall: three condenser fans on the roof, finned condenser coils along the side, two scroll compressors in the lower compartment, a control panel at the end and an inline chilled-water pump on the piping that leaves to the left. Sensor pucks sit on each compressor, on a condenser fan motor and on the pump motor; a current clamp sits at the compressor supply. Illustrative; sensors and placement depend on the application.
IoT Octopus hub
Compressor 1Normal
Fan motorWithin normal
CHW pumpSteady
PowerkW by hour
1234
Illustrative setup and example readings · not customer results
  1. 1Compressor 1Normal
  2. 2Fan motorWithin normal
  3. 3CHW pumpSteady
  4. 4PowerkW by hour

Chiller for a data hall

Knows its compressors, its condenser fans and its chilled-water pump. Flags a compressor or a fan changing before cooling capacity does — and before the hall notices.

  • Health — compressor and fan-motor vibration, pump bearings
  • Energy — kW by hour, with metering
  • Uptime — compressor duty and cycling
  • Team — a notice to facilities and the on-call engineer

Specific applications

Arriving with a specific problem? Start here.

Optional · estimateWhat does an hour of unplanned downtime cost you? Put in your own numbers.

Every assumption is yours and visible. The result is an exposure estimate, not a saving, a quote or a forecast of what monitoring would change.

—annual downtime exposure ( at /h)

Replace the defaults with your own numbers. Monitoring does not remove this exposure by itself; savings require an agreed action and evaluation under comparable conditions.

Start with a small pilot

Tell us the equipment and the question your team is trying to answer.