The next job starts late
The machine finishes, then somebody has to find the next instruction, material, tooling or fixing method.
↘Independent · UK-wide · CNC systems engineering
Recover the machine hours your shop has already paid for.
When profitable work is available, your spindle should not be waiting for material, tools, programmes, fixtures, decisions or avoidable handling. I find the lost hours, value them properly and deliver the practical fix.
Prototype, low-volume or repeat production—the system around the machine still repeats.
WORKHOLDING4 components / load
THE QUESTIONWhat is the complete cycle?
25years in CNC and precision manufacturing
≈47manufacturing companies compared
6countries across Europe and the Middle East
T + Mturning, milling, systems and delivery
Where capacity disappears
What gets accepted as normal.
Most losses are not dramatic breakdowns. They are small delays, awkward methods and repeated decisions that have become part of the working day.
Setups became “normal”
A two-hour setup stays a two-hour setup because production never stops long enough to redesign the method.
↘Handling consumes the cycle
Loading, checking and replacing one component at a time can consume more capacity than the cutting programme.
↘Good people bridge system gaps
Experienced operators keep output moving through memory and workarounds, so the real loss remains invisible.
↘Live shop-capacity model
Small improvements multiply across a shop.
Start with your working pattern and average weekly workload. See the machine hours a better method could release at the same production volume, then their value at your chosen hourly rate.
Use representative averages only across machines that share the proposed change. For prototype work, keep cycle times equal to isolate setup savings. Extra shifts increase available hours; savings increase only when the workload increases.
EDIT THE ASSUMPTIONSSHOP-LEVEL EXAMPLE
Setup means time the machine is stopped per changeover. Minutes per part means machine-occupied time, including non-overlapping handling and checks; exclude setup. For multi-part fixtures, divide the complete batch cycle by parts per load.
ANNUAL MACHINE HOURS RELEASED · NET
At the same weekly workload. A negative result means more hours are required.
annual capacity value at your chosen rate.
Setup hours released
Cycle hours released
Annual parts modelled
How the figures are calculated
Working weeks = annual working days ÷ working days per week.
Setup hours released = machines × working weeks × setups per week × (current − proposed stopped hours per setup).
Cycle hours released = machines × working weeks × parts per week × (current − proposed minutes per part) ÷ 60.
Capacity value = total hours released × machine-hour value.
Both methods must fit the scheduled weekly hours. Remaining time is not assumed to be productive. Calculations retain full precision; displayed hours and parts are rounded to one decimal, pounds to the nearest pound. Weekly averages may produce fractional annual volumes.
Capacity is not automatically cash. It becomes additional output, shorter lead time or financial return only when demand, labour, tooling and downstream capacity can use the recovered hours.
From one conversation to measured proof
A short path to a decision.
Discuss the shop and its constraints
We establish where machines wait, what keeps repeating around the work and whether there is enough signal to justify a visit.
Observe the complete method
I follow the work before, during and after the machine cycle. Facts are timed; assumptions are labelled.
Build the opportunity case
You receive the current condition, proposed change, annual value, confidence, dependencies and implementation route.
I deliver the solution. You choose the involvement.
The default is a full service: MSE designs, sources or builds, installs, trains and measures. You approve the decisions and choose whether your people participate or simply receive a working solution.
The £20K capacity challenge
Can I prove that your shop has at least £20,000 of credible annual improvement opportunity?
Below £20,000 demonstratedMSE earns £0
£20,000+ proven opportunityMSE earns £1,200
MSE delivers the solution£1,200 credited in full
The challenge opens the shop door and tests the evidence. The real work is delivering a solution that keeps creating value after I leave.
Put your shop to the test The opportunity is supported by observed facts, transparent calculations and agreed operating inputs. Achieved results are proven after implementation with a before-and-after measurement.Initial engineering scope
Close enough to the spindle to matter.
The first focus is small and medium UK machining businesses using CNC lathes, milling machines or both—from one-off prototypes to repeat production.
01Workholding and fixtures
02Setup and changeover
03Job preparation
04Prototype-to-production flow
05Programming and process
06Material and tooling flow
07Inspection and handoffs
08Machine utilisation
Engineer first
Mike Retegan
Manufacturing Systems Engineer
Twenty-five years spent walking into unfamiliar manufacturing systems, understanding how each shop really works and becoming useful quickly.
United Kingdom · Germany · Italy · Spain · Romania · Qatar
Approximately 47 manufacturing companies across Europe and the Middle East exposed me to different CNC controls, CAD/CAM systems, workholding, programming methods, planning systems and production cultures. That contract-heavy career built the real advantage: comparison.
When a method has become normal inside one shop, I can often see the alternative because I have watched the same constraint handled differently somewhere else.
Your shop stays your shop.NDA-ready. No blame. No identifiable project details without written approval.
Your machines. Your decisions. More productive hours.
Every capable shop has capacity trapped in setup, preparation and/or flow.
Let’s quantify yours. Start with a short conversation about where the spindle waits and decide whether a site visit is worth doing.
Or email info@mse-engineering.com