OUR METHOD
Good decisions. Measurable foundations.
A clear route connects an idea with a measurable result. We treat design, manufacturability, prototyping and validation as a sequence of informed decisions.
CLOSING THE LOOP
Measurement
guides
the next solution.
The model, machined surface and measurement results belong to one development process.
Measurement and validation- 01Model
Geometry and datums
- 02Manufacturing
Material and toolpath
- 03Measurement
Data and evaluation
- 04 ↺Correction
Feedback into design
Development workflow · Inspection steps are tailored to the task.
CONNECTED ENGINEERING DECISIONS
A CONNECTED PROCESS
Evidence at every stage.
Question
We start with the component’s function, identifying critical surfaces, required properties and open questions.
Function · material · geometry
Agreed technical brief
Make the next step
an informed one.
Scientific understanding, manufacturing experience and application feedback inform one another. We evaluate each initiative within its own technical and commercial context.
Work backwards from the function
The tightest tolerance is not necessarily the most useful requirement. First, we establish which geometric and surface characteristics affect system performance. In optics, these may include the evaluation aperture and wavelength range; for tool inserts, the function of the replicated component.
The specification distinguishes requirements for operation, assembly and manufacturing convenience. Development effort can then focus on the details that matter most.
Break risk into manageable questions
Testing a new material, a difficult-to-measure freeform and a new fixture together can make the cause of a deviation hard to identify. We design trials so that the question needed for the next decision can be examined separately.
We first reduce the largest technical uncertainty, then assess the complete geometry and repeatability. The next stage is justified only when the previous result can be interpreted.
Include measurement in the specification
A result can support a decision only when we know exactly what was measured and under which conditions. The evaluation area, filtering and datum system matter alongside the surface parameter. Reports distinguish the measured value from the conformity decision.
We identify in-process and final inspection stages from the start. Machining, evaluation and any correction then use the same set of requirements.
Give every iteration a purpose and a record
We document what changed, why it changed and which result we expect. Model, drawing and evaluation criteria are controlled together by revision.
A surface correction can be compared with the previous result only under equivalent evaluation conditions. Documentation preserves the reasoning needed for the next manufacturing decision.
Evaluate the component within its system
Geometric conformity and application performance require related but separate checks. Coating, mounting and thermal loading can affect the performance of a mirror even when its surface meets the agreed geometry.
The project plan therefore defines the boundary between manufacturing inspection and the customer’s functional testing. Research trials, prototypes and pilots are evaluated within their respective test conditions.
Turn the result into the next step
At the end of a development stage, we summarise three things: what has been demonstrated, what remains uncertain and what evidence is needed next. This supports another trial, a pilot or a revision to the concept.
The method in a THz development concept ↗ · Collaboration steps ↗
CONNECTED ENGINEERING
Every iteration informs the next decision.
- 01Hypothesis
- 02Experiment
- 03Feedback
Conceptual illustration of our engineering approach.
THE NEXT STEP
Let’s talk about your next component.
Tell us about its function, material and critical engineering question. Together, we can define a feasibility review or a focused first trial.