Our services

Knowledge & Expertise

From idea to production

A plastic product often looks simple — but getting it right requires the right choices early on.
We help shape the design based on what will actually work in production and in use.

Decisions early, not later

Before anything is made, we review your data to identify any gaps and ensure your product is developed on a solid foundation.
Analysis and simulation are used to uncover potential issues early, when they are still easy to handle.

Supporting where it matters

Some projects need input on materials, others on design or manufacturing.
We step in where it adds value and helps keep the process moving without unnecessary detours.

The right setup for the job

Since we are not tied to a specific production, each project can be matched with the right supplier and process.
The solution follows the product — not the other way around.

Product Development

From idea to reality

Some projects start as a rough sketch, others as a defined concept.
In both cases, the task is the same: to turn the idea into something that works — in design, in production, and in use.

Built on engineering, not assumptions

Along the way, choices are tested and refined using engineering logic, data, and production insight.
Details are adjusted early, where changes are still manageable.

Keeping the process under control

A good idea is not enough on its own — the process also needs structure.
Progress is managed from start to finish with clear steps, communication, and visibility into what comes next.

Handling risk early

Potential issues — whether technical, material, or process-related — are identified as early as possible.
This reduces the likelihood of late changes and unexpected problems.

In practice

The goal is simple: to take an idea and make it work.
Not just in CAD or theory, but in production and in real use.

We use:
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Mouldflow analysis

Understanding the process before production

Mouldflow analysis is used to understand how the material behaves before anything is made.
By simulating how the melt fills, packs, and cools in the mould, it becomes possible to see what will happen in practice.

Decisions based on insight

The simulation shows how pressure, temperature, and flow affect the part.
This helps identify risks such as air traps, shrinkage, or deformation early — when they are still manageable.

Adjusting before it becomes costly

Changes can be tested digitally instead of in steel.
This reduces the need for physical trials and tool modifications later in the process.

Scaled to the task

The level of analysis depends on the project:

  • Step 1 — Screening
    A fast check of how the part fills, used to highlight potential issues.

  • Step 2 — Detailed analysis
    A deeper study when needed, covering areas such as warpage, cooling, material behavior, and tool conditions.

  • Step 3 — DOE (if required)
    A structured variation of process parameters to understand how different factors interact and where the stable process window is.

In practice

The purpose is simple:
To understand the process before production — and reduce uncertainty before decisions are locked.

We use:
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Structural analysis

Seeing how it behaves before it exists

FEA is used to understand how a design will respond before anything is built.
The model is broken down into smaller elements, making it possible to see how stress, heat, or vibration affect each part.

Insight instead of assumptions

The analysis shows where loads concentrate and where failures may occur.
This makes it easier to adjust the design early, while changes are still simple.

Refining before testing

Instead of relying on multiple physical prototypes, designs can be tested and refined digitally.
This reduces trial-and-error and supports more informed decisions along the way.

In practice

The purpose is straightforward:
To see how a design performs before it is made, and reduce uncertainty before moving forward.

We use:
SimScale-logo1.png  Ansys

Prototypes

We only provide prototypes in connection with development projects.

In essence, there are two options: 3D printing, which can produce items that are often quick and inexpensive to make, but may not fully possess the same characteristics as the final product. If you require the properties of the actual material, then a prototype mould is the right approach.

We have access to a wide range of technologies that cover most needs. What we don't have in-house, we obtain through a network of subcontractors.

Quality Assurance & Compliance

Making quality visible

Quality control ensures that the product meets defined requirements — every time.
It confirms that what is designed, produced, and delivered performs as expected.

Checking what matters

Each part is verified against relevant criteria — dimensions, function, surface, and compliance requirements.
Deviations are identified early, before they develop into larger issues.

Consistency and compliance

QC supports a stable and repeatable process while ensuring that applicable standards and regulations are met.
This includes material specifications, documentation, and industry-specific requirements where relevant.

In practice

The role of QC is straightforward:
To confirm that the product meets defined requirements — in performance, fit, reliability, and compliance.

3D-Scanning

Capturing reality as data

3D scanning is used to capture the shape of a physical object as it is.
Millions of measurement points form a digital representation of the surface.

From scan to geometry

The data is converted into a mesh, defining the structure and shape.
If needed, the mesh is rebuilt into a precise CAD model suitable for design and manufacturing.

Working from existing parts

Scanning makes it possible to work directly from real components — whether for reverse engineering, adaptation, or verification.
It provides an accurate reference without relying on manual measurements.

Supporting design and control

The digital model can be used for modification, analysis, or comparison with nominal data.
This supports both development work and quality control.

In practice

The purpose is straightforward:
To transfer physical geometry into a usable digital format — accurately and efficiently.

Moulds

Matching the mould to the product

Most plastic components depend on a mould to define their shape and quality.
The complexity of that mould must match the complexity of the product.

Acting on your behalf

If you are a product owner, the focus is on selecting the right mouldmaker and ensuring that design, communication, and execution follow your requirements.
If you are a mouldmaker, support is provided where needed — both technically and in dialogue with your customer.

Managing complexity

A mould is not just a tool, but a combination of design, engineering, and process know-how.
Small decisions in design and construction can have a significant impact on production stability and part quality.

From order to validation

The process is followed from supplier selection and tool design to manufacturing, testing, and delivery.
Quality is verified throughout, ensuring that the mould performs as intended.

In practice

The goal is straightforward:
To match the right mouldmaker and tool solution to the task — and ensure that it works in production.

Production / moulding

Matching the process to the product

Plastic parts can be produced in many ways — injection, compression, rotation, and more.
Each method has its own strengths and limitations, and the right choice depends on the product.

Acting on your behalf

If you are a product owner, the focus is on selecting the right manufacturer and ensuring that quality meets your requirements.
If you are a manufacturer, support is provided where needed to clarify requirements and resolve uncertainties.

Choosing the right capability

Manufacturers differ in experience, equipment, and focus areas.
Matching the product to the right setup is critical for both quality and efficiency.

Managing the decision

Selecting a manufacturer is not just a sourcing task — it directly affects the final result.
The right combination of process, supplier, and requirements defines how the product performs in production.

In practice

The aim is simple:
To match the right manufacturing process and partner to the task — and ensure a stable and predictable outcome.