The right time to involve manufacturing is before the drawing is released
We don't engineer in isolation from manufacturing — we bring nine manufacturing processes into your design phase, so the component you draw is the component we can build at the cost, tolerance and lead time your project needs.
Pamatek is the manufacturing partner you call when you'd rather have the DFM conversation in the design phase than in the prototype phase. Our engineers join your project early — reviewing geometry, challenging tolerances, proposing process alternatives and mapping the tooling path — so the drawing that reaches procurement is already optimised for the manufacturing reality on the other side.
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Pamatek A/S
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DK29841446
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DFM review, process selection and tolerance strategy — embedded into your design phase, not bolted on after
Most component decisions are locked in long before the RFQ goes out. The alloy is chosen, the geometry is fixed, the tolerance stack is committed and the surface specification is written — and the manufacturing reality only enters the conversation when the supplier responds with the price, the lead time and the list of features that cannot economically be produced as drawn.
We work the other way around. Our engineers join the design phase as a sparring partner — reviewing geometry against process capability, challenging tolerances that drive cost without driving function, proposing alloy or process alternatives where the original choice would force expensive trade-offs downstream. The DFM conversation happens while the drawing is still editable, not after it has been released to procurement.
Our Services
Early-phase DFM review across nine processes
Most DFM reviews are run by a single supplier with a single process — the casting house challenges the casting drawing, the machining house challenges the machined drawing, and the design ends up optimised for whichever process happens to be doing the review. The cross-process trade-offs that actually drive total component cost rarely get discussed.
Our DFM review covers all nine processes — CNC machining, extrusion, surface treatment, spring manufacturing, bending and stamping, hot forging, plastic moulding, die casting and metal casting — so the question on the table is not whether your part can be produced by one process, but which process and which combination of processes deliver the lowest total cost at your required volume, tolerance and surface specification. A part drawn for machining is sometimes a casting waiting to happen, and the right time to discover that is in the design phase.
Tolerance, alloy and surface strategy
Every tight tolerance has a cost, and every surface specification has a manufacturing consequence. The difference between a component that prices at unit cost X and the same component that prices at 1.6X is rarely the geometry — it is the tolerance band that nobody questioned, the alloy specified out of habit rather than function, or the surface treatment that forced an extra process step.
Our engineers walk through the drawing with you and identify the cost drivers — which tolerances are functional and must hold, which are conservative and can be opened up, where alloy substitution preserves performance at lower cost or shorter lead time, and where the surface specification can be simplified without compromising the assembly fit, the corrosion behaviour or the regulatory requirement. The output is a redlined drawing with the manufacturing logic documented next to every change.
Tooling strategy and prototype-to-production path
The tooling decision is one of the most expensive commitments in the component lifecycle, and it is typically made under time pressure with incomplete process data. A tool optimised for the prototype run rarely scales economically to series production, and a tool over-specified for series production wastes capital before the design has even been validated.
We run the tooling strategy as a deliberate decision — prototype process selection that validates the design without committing to production tooling, soft tooling for low-volume validation runs, and full production tooling specified against verified volume and lifecycle data. The path from prototype to production is mapped before the first chip is cut, with the tooling commitment matched to the actual volume profile rather than the optimistic forecast.