A prototyping service based on real injection moulding

Pilot2Plant is an injection moulding prototyping service that delivers real plastic parts using the final production material. It is based on an existing mould base with a machined insert containing the geometry of the part to be validated.

The objective is not mass production, but obtaining a minimum batch of injection-moulded parts to make technically sound decisions before manufacturing the production mould.

The mould base acts as a reusable structural carrier compatible with industrial injection presses. The insert reproduces cavity geometry accurately, including gating, ejection, and the surface finish required for validation.

Unlike 3D printing or direct machining, Pilot2Plant reproduces the real injection process: material shrinkage, filling behaviour, ejection, and dimensional stability under the same conditions as the production mould.

Build system

Mould base + Insert = Pilot2Plant

Component 1
Mould base

Reusable standard structure that holds the insert and connects tooling to the industrial injection press. It includes base cooling, feeding and ejection systems.

Component 2
Machined insert

Insert manufactured specifically for each project, reproducing the exact geometry of the part to validate. Machined in aeronautical-grade aluminium or mild steel, with specified surface finish and gate adapted to the material.

Prototype mould inserts on industrial table - Pilot2Plant ITM

The problem it solves

In traditional plastic part development, many critical technical decisions are made without real injection data. Prototypes made by 3D printing or machining do not replicate injected-part behaviour: material is different, process is different, and outcomes are therefore different.

When errors are detected after the steel mould is already built, correction cost can be 5 to 10 times higher than finding them during prototype validation. Pilot2Plant exists to close that gap.

Shrinkage and warpage cannot be predicted with non-injected prototypes Differential shrinkage and warpage are phenomena linked to real injection processing and cannot be validated with prototypes made by other methods.
Filling behaviour remains unvalidated Part geometry drives flow front behaviour, weld-line position and air traps. Only real injection allows these effects to be observed and corrected.
Industrial tolerances cannot be replicated without real injection Tolerances achieved with 3D printing or prototype machining are not comparable to injection moulding with final production material and conditions.
Final material cannot be used in alternative methods Many technical materials - PA GF, PPS GF40, PEEK GF30 - are not available for 3D printing or conventional prototype machining. Pilot2Plant uses the exact production-grade resin.
Errors are detected too late, once the steel mould is already built Without real injection validation, design and process issues appear during first production runs, when modification cost is highest.

When Pilot2Plant is the right choice

Pilot2Plant creates the most value when production mould decisions depend on prototype validation results.

Technical parts with tight tolerances

When geometry or function cannot accept deviations: assembly fits, sealing interfaces, precision guides, or CTQ-driven features that must be verified before committing to production tooling.

Critical material behaviour

Reinforced or high-performance materials with high differential shrinkage: PEEK GF30, PPS GF40, PA GF30, PBT GF30. Their injection behaviour cannot be predicted or replicated with conventional prototypes.

Assembly validation

When the part belongs to a larger assembly and must be tested with real mating components: fit checks, interface verification, and representative product-level mounting.

Before a high-cost production mould

When production tooling cost justifies upfront validation. Reduce post-tooling rework risk and transfer validated process data directly to the steel mould project.

What makes Pilot2Plant different from other options

Not all prototyping techniques provide the same validation quality. The key difference is process plus material.

Feature 3D Printing Machining RIM Pilot2Plant
Real material No No Partial Yes
Real injection process No No No Yes
Industrial tolerances Limited Yes Limited Yes
Surface finish Limited Good Good Good to excellent
Warpage validation No No No Yes
Direct transition to production No Complex No Optimized
From prototype mould to production mould - Pilot2Plant as a learning path to production

Where it fits in development

Pilot2Plant bridges functional prototyping and pre-series, when design decisions are mature but production tooling is not yet committed.

Concept
Requirements definition, initial geometry and preliminary material selection.
Functional prototype
Basic geometric and functional checks. Can use 3D printing or machining.
Validation (P2P)
Injected parts with real material. Process, tolerance, warpage and assembly validation.
Pre-series
Steel mould manufacturing using P2P process data. First validation runs.
Production
Serial production in steel mould. Process parameters are directly transferable from P2P.

Pilot2Plant is the right tool between the functional prototype and pre-series stages, when design decisions are being finalized before investing in production tooling. At this stage, changes are still economically manageable, and the data obtained - process parameters, dimensional behaviour, warpage - can be transferred directly to the production mould file, reducing post-tooling iterations.

ITM Moldes manufactures production moulds. If Pilot2Plant validation confirms the design, the next step can be taken with the same team. View production moulds — ITM Moldes →

Is your part ready to validate?

Send us the 3D file or drawing and our technical team will assess project feasibility.