Considerably higher precision and faster build rates compared to conventional extrusion 3D printers

Universal: large 510 x 510 x 400 mm build platform

Highly cost-effective: pellet-based processing of high-performance plastics such as PEEK and PPS, with and without fibre filling

Rostock, Germany, October 27, 2021: AIM3D, a manufacturer of multi-material 3D printers, has developed a new, more powerful 3D printer for the CEM (composite extrusion modelling) process. The new ExAM 510 boasts a larger build area, higher precision and faster build rates. The ExAM 510 printer is a multi-material printer for additive manufacturing that can print up to three different materials in parallel. The ExAM 510 printer is a performance-enhanced version of the previous ExAM 255, both of which will be part of the Rostock company’s product range in the future. The new model will be on show as a prototype at Formnext 2021. After a beta phase with pilot processors, the ExAM 510 is planned to be ready for series production in time for Formnext 2022, according to the manufacturer.

Setting new standards with the ExAM 510

As the latest addition to the Rostock company’s product line-up, the ExAM 510 printer is a further development of the smaller EXAM 255 model. The innovative multi-material printer can process up to three materials. This allows for two building materials and a support material. The extended build platform of 510 x 510 x 400 mm enables a multitude of applications. The build area can be heated up to 200ºC in order to reduce stresses in the component and to process high-performance materials. It also features a considerably increased build rate, depending on the material, of up to 250 cm³/h (when using a 0.4 mm nozzle).

High precision and excellent component quality

The ExAM 510 concept enables significantly increased precision of printed components. The objective of developing the machine was to get even more out of the patented AIM3D extruder technology. This extruder class enables an output up to 10 times higher than standard filament extruders. The use of linear motors and a stable mineral cast bed makes extremely precise operation possible even at high speeds, thus fully exploiting the potential of the technology.

Key advantages of diverse materials and cost savings

The use of a wide range of materials is the particular appeal of the ExAM 510. AIM3D equips the machine with a heated process chamber specially designed for high-temperature plastics. This enables the processing of high-temperature plastics such as PEEK, PEI, PSU, PPS, with and without fibre filling. Corresponding experience with the extruders had already been gained with the ExAM 255. This means that a user can, for example, process PEEK, either unfilled or filled with fibre material, directly in pellet form in additive manufacturing. This results in an enormous cost advantage in terms of the raw materials. Recycling this material is also much easier and cheaper. According to the manufacturer, a material can be tested in 1 to 2 working days and established for production in 5 to 10 working days. The material PEEK, for example, demonstrates these high cost savings most clearly: if the price for PEEK filament is around €700/kg used on conventional additive manufacturing machines, the ExAM 510 can use PEEK pellets, as deployed in classic injection moulding. The market price of around €50/kg for PEEK pellets amounts to only 7% of comparable material costs or a cost reduction by a factor of 14. This opens up completely new dimensions in terms of cost efficiencies.

Areas of application and potential

Classic areas of application for high-performance polymer materials can be found in automotive, medical technology or aerospace. AIM3D’s pilot customers are from these industries. Clemens Lieberwirth, CTO at AIM3D: “The further development of our patented ExAM 255 machine into the ExAM 510 is a technological leap for us. So you could say we are now offering a faster, bigger, hotter and more precise CEM process technology for additive manufacturing.”

Table 1: CEM technology – fields of application according to materials

Metals Stainless steels, copper,
tool steels, tungsten, tungsten carbide Fixtures
Moulding dies,
Internally cooled tools
Ceramics Aluminium oxide
Zirconium oxide
Silicon carbide
Silicon nitride Chem. process technology,
High voltage isolators,
Thermally stressed components
(Reinforced) plastics PA6 GF30
PEI Coolant technology,
Automotive applications,
ESD housings

ExAM 510: higher build rates and improved component quality
Copyright by Frank Preuss


Background information

Composite Extrusion Modelling

Composite extrusion modelling (CEM process) combines metal injection moulding (MIM process), which is already established worldwide, with process technologies from additive manufacturing.

This is based on both fused deposition modelling (FDM process) and selective laser melting (SLM process), thus creating an optimal blend of conventional production methods and innovative additive manufacturing.

The result is a very simple process, based on inexpensive and widely available injection moulding pellets while offering the freedom of additive manufacturing without the need for moulds. The CEM process not only significantly lowers material costs, but also drastically cuts machine costs. Common problems in metal manufacturing, such as residual stresses, are significantly reduced with the CEM process.

Fused Granulate Modelling

Fused granulate modelling (FGM) is an additive manufacturing process and is based on the widely used thermoplastic melt layer process (FDM/FFF).

The print head processes pellets into a thin melt thread and applies it to the build area. Thanks to the automatic generation of support material, more complex shapes can also be realised, enabling custom-made production or prototype production in injection moulding technology. In contrast to the common melt-layer processes, such as fused filament fabrication (FFF), FGM does not use an elaborately produced filament, but conventional series-production thermoplastic injection moulding pellets.


Industriestrasse 12
D-18069 Rostock

T: +49 (0) 381 / 36 76 609-0
E: [email protected]

Management board:
Dr.-Ing. Vincent Morrison (CEO)
Clemens Lieberwirth (CTO)
Daniel Selck (CSO)

Press contact:

Christina Rozmarin (assistant to the management board)
T: +49 (0) 381 / 36 76 60 90
E: [email protected]

Editorial contact:
Guido Radig
Provvido PR & Communications
Ebersbacher Strasse 9
D-85258 Weichs

T: +49 (0) 81 37 / 99 61 915
F: +49 (0) 81 37 / 99 61 913
M: +49 (0) 172 / 47 00 312
E: [email protected]
D: +

AIM3D GmbH is a start-up founded in 2017 as a spin-off from the University of Rostock (Chair for Fluid Technology and Microfluid Technology) in Rostock (Germany). The company manufactures industrial 3D printers that use the CEM (composite extrusion modelling) process.

This enables the manufacture of components and prototypes on the basis of commercially available injection moulding pellets for metal, (filled) thermoplastics and ceramics without the need for retrofitting on a disruptive multi-material 3D printing system.

The universal printing systems from AIM3D exceed material limits, enable the use of conventional injection moulding materials and thus offer an extremely cost-effective approach to additive manufacturing.

As a unique selling point, these 3D printers have a patented AIM3D CEM-E-1-Extruder®, which can process almost any injection moulding pellets up to a length/diameter of 3 mm. The high compression process results in consistent print results at all times.

The 3D printers from AIM3D are in no way inferior to the FDM and FFF printers available on the market and offer a cost-effective option to conventional 3D printers, as they do not use spherical powders or plastic filaments. This means that the prototype material can therefore be identical to the final component. The machine features an automatic material feed and uses up to one litre of material per extruder. This corresponds to approx. 1.2 kg ABS or up to 4.4 kg stainless steel. The material hopper can be refilled during the printing process.

For post-processing, AIM3D’s ExSO sintering furnace debinds and sinters metal parts directly after the 3D printing process on the ExAM machine. At the push of a button, both processes run fully automatically in one system, manufacturing high-density metal parts using the CEM process. The gentle, homogeneous generation of the metallic structure in the sintering furnace results in metal parts with a structure similar to that of cast iron, which are almost completely free of residual stress.

AIM3D is part of a comprehensive technology and research network with universities and industry as partners.

HZG Management GmbH, Coburg (Germany), has been a shareholder since 2021. This holding is managed by Frank Herzog, pioneer of the LaserCusing® process and founder of Concept Laser, Lichtenfels (Germany).

Multi Material Additive Manufacturing Technology beyond Limits.


You may also like