AI and automation for manufacturing
AI for manufacturing, starting with the data the machines already produce
Most manufacturers do not need a model. They need the equipment they already own to stop being read by a person with a clipboard — and then, sometimes, a model.
The situation
The data exists. Nobody can reach it.
Manufacturing is unusual in that the raw material for AI — machine output, cycle times, reject rates — is already being generated. It is generally trapped in the equipment.
- Readings taken from a display and typed into a spreadsheet
- Production status established by walking the floor and asking
- Downtime noticed when somebody reports it rather than when it starts
- Quality checks recorded on paper and filed unread
- Planning done in a spreadsheet that only one person maintains
- Machines from four suppliers and four decades that share nothing
What it covers
Where AI and automation fit on a production floor
The first two are where most of the value is, and neither is AI.
Machine and sensor connectivity
Reading equipment directly over OPC UA, Modbus, serial or a vendor interface — including older kit with awkward outputs.
Production visibility
What is running, what has stopped and why, visible as it happens rather than at the end of a shift.
Predictive maintenance
Using vibration, temperature and cycle data to flag equipment drifting toward failure. Genuine AI value, and it needs history to work.
Quality and inspection
Vision-based inspection for defects that are consistent and visible, with a person adjudicating the borderline cases.
Planning and scheduling
Scheduling against real capacity, changeover times and material availability rather than an optimistic spreadsheet.
Traceability
What went into a batch, which machine ran it and who signed it off — recorded as it happens, so a recall is a query rather than an archaeology project.
How we work
How a manufacturing engagement runs
Instrument first. A predictive maintenance model with no historical machine data is a research project, not a deliverable.
Survey the equipment
What exists, what it can already output, and what documentation or SDK is available. This step regularly changes the plan.
Prove one machine
Get data flowing end to end from a single asset before committing to the estate.
Make it visible
Production status, downtime and reject rates in front of the people who can act on them, live.
Model, once there is history
Prediction needs months of labelled data. Instrumenting first is what makes it possible later.
Outcomes
What it can be worth
- Readings captured directly instead of transcribed
- Downtime noticed as it starts rather than at the end of a shift
- Utilisation measured rather than estimated
- One consistent record across different makes and generations of equipment
- Traceability that answers a recall query in minutes
- The data history that makes prediction possible at all
Platforms and tooling
What we work with
Protocols
- OPC UA
- MQTT
- Modbus
- Serial
- TCP/IP
Platform
- Azure IoT
- AWS IoT
- Edge gateways
- Time-series databases
- Docker
Systems
- ERP
- MES
- SCADA
- Quality systems
- Maintenance systems
Named as platforms we work with, not as formal partnerships.
Common questions
Questions we are usually asked
Usually. Older equipment often exposes serial output, a file drop or a vendor interface even without a modern API. The survey stage establishes this before anything is promised, because the answer genuinely varies by asset.
Not on day one, and anyone who says otherwise is selling. Prediction needs months of machine history including actual failures. If you are not instrumented yet, the honest first project is capturing that data — which delivers visibility value immediately and makes prediction possible later.
Read-only integration does not affect operation and can normally be introduced without downtime. Anything that writes to or controls equipment is planned with your engineering and safety people, not around them.
Assume it will drop, because it does. Data is buffered locally and forwarded when the connection returns. A pipeline that assumes a perfect network loses data quietly, which is worse than not having it.
For consistent, visible defects it can be very reliable and tireless. We would still route borderline cases to a person — the failure mode of an over-trusted inspection system is that it passes a defect confidently.
It changes your security exposure, so segmentation, authentication and least-privilege access are part of the design rather than an afterthought. This is a genuine risk and worth treating as one.
Talk to someone who has built this
Not a salesperson working from a form. Tell us what the problem looks like and someone who has delivered this kind of work will come back to you, usually within one working day.
Book a free consultationRelated
Where this usually connects
- Software and hardware integrationConnecting devices, equipment and sensors to business systems.
- Operational systemsThe systems that run the day-to-day work of the business.
- Systems integrationMaking the systems you already own talk to each other.
- Engineering software developmentTechnical and engineering software built to specification.
- Bespoke databasesFor the operational data that has ended up in a spreadsheet.
- Enterprise service busA single integration layer instead of point-to-point connections.