Cost-effective production of high-quality parts without the use of expensive conventional forming tools
Durable engineering materials
High dimensional accuracy and reliability of the SLS process
Cost-effective production of high-quality parts without the use of expensive conventional forming tools
Durable engineering materials
High dimensional accuracy and reliability of the SLS process
High productivity
Cost-effective production of high-quality parts without the use of expensive conventional forming tools
Parts after optimization may have better parameters and unique properties
No need for supporting structures
High productivity
Cost-effective production of high-quality parts without the use of expensive conventional forming tools
Parts after optimization may have better parameters and unique properties
No need for supporting structures
Relatively low price of FDM / FFF 3D printed parts due to low material costs
High flexibility of 3D printing
A wide range of materials, including high temperature materials (e.g. ULTEM, PEEK)
Relatively low price of FDM / FFF 3D printed parts due to low material costs
High flexibility of 3D printing
A wide range of materials, including high temperature materials (e.g. ULTEM, PEEK)
High precision and smoothness of 3D printed parts
A wide range of materials
The possibility of producing parts with high transparency
Specialized materials intend
High precision and smoothness of 3D printed parts
A wide range of materials
The possibility of producing parts with high transparency
Specialized materials intend
High resolution and dimensional accuracy of 3D printing thanks to the ultra-thin layer thickness (from 16 µm)
Possibility to produce multi-material and multi-colored parts
Material variety (from rubber-like materials to hard materials)
Relatively easy post-processing – supporting structures removed with a water jet
High resolution and dimensional accuracy of 3D printing thanks to the ultra-thin layer thickness (from 16 µm)
Possibility to produce multi-material and multi-colored parts
Material variety (from rubber-like materials to hard materials)
Relatively easy post-processing – supporting structures removed with a water jet
Parts weight optimization – topology
Difficult-to-cut materials processing – e.g. nickel alloys
Meeting high-quality requirements for advanced industries – aviation, medicine
Parts weight optimization – topology
Geometric structures production that can be made only by 3D printing – e.g. cooling channels for tools (conformal channels)
Difficult-to-cut materials processing – e.g. nickel alloys
Meeting high-quality requirements for advanced industries – aviation, medicine
It allows you to smooth models made in any technology by using abrasive media in a vibratory drum. The surfaces gain a smooth surface as if sanded with sandpaper. The treatment is especially recommended for medium-sized models and round-shaped surfaces of low detail.
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Our own print smoothing system gives SLS and MJF a light sheen with a delicate texture. Dyed parts receive a similar appearance to parts made with injection technology. Smoother models are more resistant to dirt compared to raw print. The advantage of this treatment is the possibility to obtain a smooth surface without the need for varnishing or grinding.
By combining a number of finishing treatments, which mainly include the surfacing and vibro mentioned above, we can achieve even smoother surfaces in printed parts. There are some limitations to this treatment, which you will learn about after contacting the Fibometry team.
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Chemical Smoothing
Chemical smoothing is a method used to process prints made from PA12, PA11, and TPU materials, transforming rough surfaces into perfectly smooth finishes. The process involves gently dissolving the surface of an object with the vapors of a specialized solvent. This controlled dissolution smooths the object’s surface, eliminating visible 3D printing layer lines. The result is an aesthetic, glossy surface that not only appears professional but can also enhance the mechanical and functional properties of the object.
Advantages of Chemical Smoothing:
High-Quality Finish: The primary benefit of this method is the exceptionally smooth surface it achieves.
Improved Mechanical Properties: By removing even the smallest irregularities and reducing the risk of surface defects, the process enhances the durability of the model.
Protection Against Contamination: The ultra-smooth surface is less prone to dirt accumulation and is easy to clean, making it ideal for applications where hygiene is crucial, such as in medicine or the food industry.
Production Efficiency: A quick and automated smoothing process increases productivity.
Sustainability: Minimal chemical and energy usage translates to ecological and economic benefits.
SLS/MJF prints can be surface dyed and freely coloured without adding thickness to the model. It is possible to create a color at the customer's special request. MJF printed parts are best dyed black because of their gray color.
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We offer print painting in all technologies.
If your printout needs to be waterproof, SLS and MJF prints can be sealed which closes the porosity of the structure.
In the case of mold or tool printed models, it is possible to cover them with a separating coating Mold release agent.
The marking is possible for black-dyed printed models.
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Druk 3D – profesjonalne usługi.
Drukarnia 3D, prototypowanie, druk części zamiennych.
SLS, MJF, FDM/FFF, SLA/DLP, PJ/MJM, DMLS/SLM
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