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AI-powered IoT monitoring

We build and run the monitoring layer for connected operations.

Technical Enterprises operates real-time monitoring dashboards, remote device tracking, and telemetry analytics for organisations with hardware in the field. Those three services run in production today, processing device data as it arrives and putting it in front of the people responsible for the equipment.

Technical Enterprises
All sites
Devices online
238/ 240
Open alerts
1needs review
Readings today
1.4Mingested
Ingest latency
240ms p95
Live readingsLast 6 hours
GW-014Ambient temperature22.4°C
GW-027Line pressure4.18bar
GW-031Spindle vibration0.81mm/s
GW-042Power draw118.6kW
StreamingAnomaly model · per-device baseline
A representation of Fleet Monitor, the Technical Enterprises monitoring dashboard: a fleet summary showing devices online, open alerts, readings ingested and ingest latency, above four gateways reporting sensor readings against their learned baselines, with one reading flagged for review by the anomaly model.

Fleet Monitor — representative view of the product interface

Continuous ingestion
Telemetry is processed as it arrives, around the clock, with no batch window between a reading and the dashboard.
Production deployments
Each client runs in its own isolated environment, deployed and kept running by our engineers.
Client-facing services
Our dashboards are in daily use by operations and maintenance teams as their working view of the plant.
Azure-native
The whole platform is deployed, monitored, and operated on Microsoft Azure.
What we run

Three services, running in production.

Connected hardware already produces plenty of data. What we build and operate is the layer that turns it into something a team can act on — deployed into client environments and kept running by our engineers. Everything on this page marked in production is live today.

In production

Real-time monitoring dashboards

Live views of every sensor, gateway, and machine on a site. Teams set the thresholds that matter to them, see readings the moment they land, and drill from a site-level summary down to a single device without waiting on a report.

  • Sub-second reading updates
  • Threshold and rate-of-change alerting
  • Role-specific views and layouts
In production

Remote device tracking

Location, connectivity, firmware version, and health for hardware spread across sites and regions. We track which units are online, where they are, what they are running, and which ones have gone quiet — continuously, not on a sweep.

  • Fleet inventory and grouping
  • Connectivity and last-seen history
  • Firmware and configuration state
In production

Telemetry analytics

Historical readings turned into answers. Utilisation, downtime causes, consumption trends, and forecasts, delivered on a schedule to the people who plan around them and queryable the moment a question comes up.

  • Utilisation and downtime reporting
  • Consumption and cost trends
  • Exports to the tools teams already use
How it works

What the platform does with a reading, every second of the day.

  1. 01

    Connect

    Devices and gateways stream telemetry over MQTT, HTTP, or a broker already on site. We integrate with the hardware as it stands rather than asking anyone to replace it.

  2. 02

    Ingest

    Readings land in a time-series pipeline built for field conditions: bursty traffic, out-of-order timestamps, and links that drop and come back without losing data.

  3. 03

    Analyse

    Models hold a baseline for every individual device, measure each reading against it, flag drift as it emerges, and project where a trend is heading.

  4. 04

    Act

    Alerts route to the people who can do something about them, carrying the reading, the baseline, and the reason they fired — not just a red light.

Real-world applications

What this looks like on the ground.

Four illustrative examples of how the platform gets applied. They are written generically on purpose — we do not publish client deployments — but the problems are the ones teams actually bring us.

Manufacturing

Production line temperature and vibration

Sensors on motors, spindles, and enclosures across a floor. A machine drifting out of its normal range is flagged before it trips the line, and the work is scheduled between shifts rather than mid-run.

Cold chain

Refrigerated transport and storage

Temperature and door state on refrigerated units in transit and in the yard. A unit warming faster than its own baseline raises an alert while the load is still recoverable, not at the delivery check.

Water treatment

Flow, pressure, and pump health

Pumps and flow meters across a treatment site. A pump drawing more current for the same flow shows wear weeks before it fails, which turns an emergency callout into planned maintenance.

Facilities

Building services across a portfolio

HVAC, power, and water across multiple buildings in one view instead of one vendor portal per system, with consumption trends per site for the people who sign off the bills.

Why Technical Enterprises

What changes once it is running.

The features matter less than what they add up to for the people who have to keep the equipment working.

Fewer missed issues
A baseline per device catches drift that a single fleet-wide threshold sails straight past. The machine that always runs warm stops crying wolf, and the one that has only just started to gets noticed.
Faster response
Every alert carries the reading, the baseline it broke, and the window it came from, routed to the person who can act on it. There is no triage step to work out what actually happened.
Less manual checking
No walking the floor with a clipboard, and no tab-hopping between vendor portals to assemble a picture. The exceptions come to the team instead of the team going looking for them.
One view across mixed hardware
Equipment from different vendors and different generations reports into a single interface, so nobody has to hold the whole estate in their head to know what is happening.
Maintenance planned on evidence
Wear and consumption trends show what genuinely needs attention next, so servicing is scheduled around production instead of against a fixed calendar.
No new burden on your team
We deploy the software, watch it in production, and keep it running. Your engineers stay on your product rather than becoming operators of ours.
The AI layer

Models that earn their place on the dashboard.

A fleet that alerts on everything gets ignored within a week. The models we run exist to cut the number of things a team has to look at, and to explain themselves when they do ask for attention.

Every flag arrives with the reading that triggered it, the baseline it was measured against, and the window it was drawn from. An engineer can agree or disagree with it on the spot.

The four below run in production today. The language-driven features — asking the fleet questions in plain English, written shift digests — are in development, and are listed as such in the roadmap.

In production
Anomaly detection
A baseline per device, not one global threshold across a fleet. Readings are measured against how that specific unit normally behaves.
In production
Per-device baselining
Each device learns its own normal range, including duty cycle and daily pattern, and keeps adjusting as conditions change.
In production
Failure forecasting
Wear and consumption patterns projected forward, so maintenance is scheduled on evidence rather than on a fixed calendar.
In production
Alert prioritisation
Related flags are grouped and ranked so a shift starts with the handful of things that matter, not a wall of notifications.
Roadmap

Where the platform is today, and where it is going.

We would rather be specific than impressive. Everything in the first column is running for clients now. Everything in the second is being built, and is not something you can buy today.

Now

In production

Deployed, operated, and in daily use.

Real-time monitoring dashboards
Live readings, thresholds, and drill-down from a site summary to a single device.
Remote device tracking
Connectivity, location, firmware, and last-seen state across the whole fleet.
Telemetry analytics and reporting
Utilisation, downtime, and consumption trends, delivered on a schedule.
Anomaly detection
Every device measured against how it normally behaves, not a fleet-wide limit.
Threshold and rate-of-change alerting
Routed to the person who can act, with the reading and the baseline attached.

Next

In development

In active development. Not available yet.

Natural-language reporting
Ask the fleet a question in plain English and get an answer built from the underlying telemetry, alongside the readings it drew on.
Fleet summarisation
A written digest of what changed across the estate overnight, so a shift starts with the exceptions rather than the raw feed.
Expanded forecasting
Wider coverage of equipment classes and longer projection windows than the current models support.
Cross-site benchmarking
Compare equivalent equipment across sites to surface the outliers that only show up in comparison.
Where it runs

Running on Microsoft Azure.

Our platform is Azure end to end, from device identity through to the dashboard a client opens in the morning. It is where we deploy, where we monitor our own services, and where client environments run.

Sectors we work in

  • Manufacturing
  • Facilities and building management
  • Energy and utilities
  • Cold chain and logistics
  • Water treatment
  • Agriculture
  • Azure IoT HubDevice connectivity and identity
  • Azure Event HubsTelemetry ingestion at volume
  • Azure FunctionsEvent processing and routing
  • Azure AI servicesAnomaly detection and forecasting
  • Azure Data ExplorerTime-series storage and query
  • Azure Static Web AppsDashboard delivery

Tell us what you need to keep in view.

Whether that is four machines on one floor or a few thousand devices spread across a region, the first conversation is the same: what the hardware reports today, and what your team needs to know from it.