Modern metal manufacturing begins long before the first cut: drawings, CAD models, materials, tolerances and surface requirements first have to be translated into a process that is technically sound, economical and repeatable.
stainlesstec therefore combines digital production planning with modern CNC and laser technology and the experience of our skilled staff. Customer data do not simply become machine programs – they become a defined route from the digital model to the finished part.
CAD data · production planning · CNC manufacturing · repeatable processes · variants & small batches
Data provide the basis. Experience turns it into manufacturing.
A CAD model describes geometry. What it does not say by itself is:
which production sequence makes sense
which bend radii are realistic
where welding may cause distortion
which tolerances are particularly critical
which surface will remain visible
which operations get in each other’s way
how a part can be made economically
Data-driven manufacturing at stainlesstec therefore begins with reading the customer’s data technically. Our production planning team is the link between design and production.
From CAD model to machine
Depending on the project, what we receive includes:
STEP data · DXF data · technical drawings · parts lists · customer specifications
This information is reviewed and prepared for each operation. Out of it come, among other things:
cutting and punching programs
bending sequences
machining strategies
welding sequences
routing sheets
test requirements
allocation to drawing revisions and variants
A digital model of a part thus becomes concrete, repeatable manufacturing information.
A part is more than the sum of its programs
On more complex designs in particular, optimising each operation on its own is not enough.
A part can laser cut without trouble and still cause difficulty at the press brake. An assembly can be bent within tolerance and then distort through the heat of welding. A surface can be technically perfect and still fall short of requirement after later work on it.
We therefore look at the production sequence as a whole:
At stainlesstec, production planning is not merely an administrative link between order and shop floor. It is where it is decided how a design will actually be made. The questions settled there include:
Which process suits the geometry?
Which sequence keeps re-clamping to a minimum?
How can weld distortion be reduced?
Where are fixtures necessary?
Which dimensions are functionally most critical?
Which areas have to stay protected?
Which checks belong in the process?
On small batches and bespoke builds especially, this work has a large influence on quality and cost – because here not every difficulty can be solved with high volumes and elaborate production tooling.
Even a single bespoke build can become a small batch.
Digital production planning shows its strength on bespoke builds too:
Machine programs · work sequences · drawing revisions · process knowledge
stay allocated to the part concerned. A process developed once can be used again for later orders, adapted, or carried over to variants.
When a design changes
In machine building and development projects in particular, a part rarely stays unchanged for years: new variants appear, connections change, material thicknesses are adjusted, holes move, surface or test requirements change.
It matters, then, that changes are not simply made “somehow on the shop floor”. New revisions have to be taken into the manufacturing data under control. Data-driven manufacturing provides the basis for that: drawing revision and production data can be tied together unambiguously, and that is what controlled variant manufacturing rests on.
Variants need data under control
Two parts can look almost identical and still differ in one decisive place – for example through:
different connections
altered hole patterns
different material thicknesses
alternative materials
additional brackets
changed dimensions
different surfaces
With product families in particular, a clean data structure is decisive.
Data set the precision. Experience sets the result.
Modern laser, punch and CNC technology can work parts to high accuracy. Even the best machine, though, does not recognise by itself:
how a material behaves when formed
how welding heat affects a thin part
when a structure has to be straightened
how a high-grade visible surface is protected during production
which dimensional deviation really is functionally critical
stainlesstec therefore brings two kinds of expertise together:
Digital precision
CAD data, CNC programs and modern production technology give repeatability and controllable processes.
The experience of our specialists
Programmers, production planners, machine operators and welders bring the knowledge of material and shop-floor reality.
Especially important for small batches and bespoke builds
In mass production, processes can be optimised over long run-up phases with special tooling. In small batches a good process has to come together far more quickly. The combination of digital preparation and flexible manufacturing is therefore especially valuable for:
prototypes
single parts
pre-production runs
variants
recurring small batches
complex bespoke builds
A new order need not start from scratch every time: existing data and shop-floor experience can be developed further to good purpose.
The data set stays tied to the real part throughout production.
01
Customer data
CAD model, drawing, parts list and specification form the basis.
02
Manufacturability review
Geometry, material, tolerances, surface and production sequence are assessed.
03
Programming
Design data become machine and manufacturing data.
04
Manufacturing
Laser cutting, punching, bending, forming, welding and other processes follow the defined sequence.
05
Assembly & finish
Where required, individual parts are built up into assemblies and surface finished.
06
Testing
The agreed characteristics are checked on the finished part.
Designing for manufacture
Good collaboration ideally does not start with a drawing that is already fully fixed. On special parts especially, small design changes can have a considerable effect on:
production time
material consumption
welding effort
distortion
the number of operations
the fixtures needed
later assembly
If we are brought in early, we can suggest how a design might be made more readily manufacturable.
The aim is to avoid needless manufacturing complexity.
Where data-driven manufacturing matters most
Machinery & plant engineering
With variants, assemblies and recurring small batches, drawing revision and manufacturing data have to match reliably.
High technology & special applications
Complex geometries, tight tolerances and unusual production sequences call for clean digital preparation.
Aerospace
Here revision status, traceability and controlled changes can matter especially.
Pharmaceutical & process technology
Material, surface, weld execution and test requirements have to be brought together at the production planning stage.
Defence technology
In qualified processes, material, procedure, testing and documentation are all part of technical project planning.
Which data help us?
For a quick, reliable project review, the following help most:
STEP data
DXF files
technical drawings
parts lists
material details
quantities
critical tolerances
surface requirements
welding requirements
test requirements
the delivery date wanted
The more complete this information, the sooner we can judge a suitable production route. If not every detail is settled yet, an early design stage can be useful too, where manufacturing questions need clearing up.
Data become manufacturing. And manufacturing becomes a repeatable process.
Do you have a part, an assembly or a small batch to be made from CAD data? Send us the drawing and the design data. Our production planning team will assess, together with the shop floor, how a technically sound and repeatable process can be built from them.
Let’s talk about your project.
Send us your drawing or CAD data by email – together with material, batch size and your requirements. We will come back to you with a sound assessment.
