Plastic 3D printing /from SLA synthetic resin


Stereolitography that is, the SLA method is a 3D-print technique where the laser hardens the layers by means of using light-activated photopolimer resin. The advantages of this technique are more spectacular in the case of small-scale series. The surface of the spare parts produced is more even, the details can be presented better and at the same time the original design can be also double-checked. Due to the wide range of prime materials it is also eligible for functional testing up to a certain extent, but generally it is used for the printing of scale models, jigs, fixing tools, casting moulds, prototypes, dental models and other kinds of small-scale series.

The maximum size that can be printed by the industrial SLA-type plastic 3D printing technique is as follows:
2080mm x 680 mm x 780 mm

Plastic 3D printing /from SLS PA raw material


Laser sintering, that is the SLS method is an additive technology, by means of which the PA powdered material – spread layer-by-layer – is formed into a single solid mass by laser energy. Among the materials offered the aluminium- and glass fibre- filled Poliamid can also be found. By this method durable and completely functional prototypes or smaller-scale series can also be created. Due to its favourable features the load-bearing capacity of the technique is almost as high as that of the products made by injection moulding , therefore it is totally suitable for testing, building in or even final usage too.

The maximum size that can be printed by the industrial  SLS-type plastic 3D printing technique is as follows:
630 x 310 x 540 mm

Metal 3D printing /from DMLS aluminium, steel, titan material


The Direct Metal Sintering that is the DMLS method is an industrial rapid prototyping technique, in which the metallic powder spread layer-by-layer is fused together by a concentrated, high-power laser. Among the prime materials we may also find the following materials: Aluminium (AlSi10Mg), steel 316L (1.4404), Maraging Tool Steel MS1 (1.2709) and Titan (TiAl6V4). The characteristics of the spare parts are the same as those of the well-known alloys avaliable in the retail market and  produced in the traditional method. The created parts can be handled in the same way as the traditional materials regarding heat-treatment, machining, welding and coating. This technique is eligible for the creation of solid covers, shape-adjusting inner cooling circuits, tool linings and inlays having an irregular shape, among other things.

Aluminium-type industrial 3D metal printing, DMLS:
AlSi10Mg (maximum printable size: 480 x 260 x 325 mm)

Steel-based industrial 3D metal printing , DMLS:
316L (1.4404) (maximum printable size: 230 x 230 x 235 mm)

Titan-type industrial 3D metal printing, DMSL:
TiAl6V4 (maximum printable size: 230 x 230 x 235mm)

3D scanning / Industrial measurement technology & 3D digitalisation


Our 3D scanning service provides an accurate and cost-effective solution for a wide range of application fields. As for scanning, the item can be either tiny or of a larger size, we can provide a high-resolution and high-accuracy digital model in any case.  The result of the measurements is a 3-dimension data set (a point cloud consisting of measurement points presented in a X-Y-Z-based coordinate system) which can already be used in several fields such as quality control or further re-design (Reverse Engineering). We provide and adequate STL-file for these services.

We have several years of experience in the quality control of 3D scan-based production and assembly processes of products and spare parts.