Engineering systems that still make sense when the pressure is on.
I build automation, motion, robotics and stage engineering systems with the full lifecycle in mind: from wiring and fabrication through to commissioning, operator interface and handover.
Core platforms
And the software around machines — from OPC UA logging to lightweight web interfaces and infrastructure support.
The understanding comes from building and fault-finding with real hardware first, then applying that to design and commissioning work.
Turnkey or design-only. On-site across the UK. Training systems designed for real learning outcomes, not just demonstration.
A machine is not finished when it runs once. It is finished when it can be commissioned, handed over, and supported by someone who was not there on day one.
Background
How the capability was built
The work did not start as abstract controls theory. It started with hands in machines — which is still where the thinking comes from.
The thinking comes from wiring, fabrication, machining, pneumatics, assembly and fault-finding on actual equipment. This is where the real instincts about what fails, what's hard to service, and what gets ignored under pressure were developed.
Panel design, PLC structure, drive integration, enable chains, safety integration, and the process of bringing a system up from nothing — and handing it over properly when done.
The work now regularly spans Siemens motion, robotics integration, test rigs, stage motion concepts and the systems around machines — all carried out with the same underlying approach: structured, documented, and supportable.
Good engineering now includes the systems around the machine: logging, lightweight web interfaces, structured file systems, networking and the software that makes engineering work more reliable and repeatable.
"Supportability is the real design brief. A machine is not finished when it runs once."
Sectors served
Capability areas
Where that shows up in practice
The same principles carry across controls upgrades, motion systems, robotics, training hardware and infrastructure work.
Panel rebuilds, PLC and HMI updates, device integration, alarm structure, commissioning and handover documentation.
Servo systems, drives, axis behaviour, robot handshakes, recovery logic and the surrounding operator interface.
Purpose-built rigs and delivered cases that make commissioning, diagnostics and integration methods teachable.
Designs informed by access, routing, fixing, assembly, guarding and what it is actually like to work on the machine in the field.
Internal tools, naming systems, data capture, lightweight web interfaces and operational support utilities.
Networking, WiFi, CCTV and access systems where they are part of a wider engineering outcome and need to meet real operational standards.
If the job needs to be supportable, the details matter from the start.
Whether the requirement is a re-control, a motion platform, a robotics integration, or a training system — the brief, constraints and handover requirements shape everything.