We offer a comprehensive 3D printing service for small to medium-sized batches of parts made from polymers and metals.


  • Based on your 3D CAD model, we print the product or a small series of products.
  • From a drawing, we create a 3D CAD model and print it.
  • If you bring us an existing product, we scan it using a 3D scanner, create a 3D CAD model, and print it. This process is called reverse engineering.

We provide advice on selecting the appropriate technology and materials.

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Fast production of complex shapes with excellent precision and productivity

Reduce production time and lower costs for small batch manufacturing. Depending on the selected printing technology, we can print your products in as little as one day. Our 3D printing services do not require expensive casting tools or time-consuming CNC machining, where most of the material is wasted as scrap.

Overview of Available Technologies

Metal Binder Jetting

Metal Binder Jetting (MBJ) is a 3D printing method based on sintering that enables the production of highly precise parts from powder materials.


The fine metal powder is evenly distributed across the build area, ensuring precise layer thickness. The inkjet printhead moves across the powder layer, selectively depositing a liquid binder, similar to glue, onto the powder, defining the cross-section of the desired part. This process is repeated until the part reaches its full height. The working frame, containing both bound and loose powder, is then removed, and the freshly printed parts are carefully extracted and prepared for sintering. The sintering process occurs in an industrial furnace, where the parts are exposed to temperatures close to the material's melting point, consolidating the structure to full density. Additional steps, such as machining or heat treatment, may be employed to achieve the desired properties.

Bound Metal Deposition

Bound Metal Deposition (BMD) is a 3D printing method based on the thermo-extrusion of a special filament.


Similar to FDM technology, the polymer binder in the filament is melted here. The process begins with extruding the melted filament through a nozzle, which builds the part layer by layer based on the 3D model. After printing, the part undergoes a debinding process, where the polymer binder is removed. This is followed by sintering in a furnace, where the metal powder is melted at high temperatures close to the material's melting point, allowing the metal particles to fuse and solidify, resulting in the part achieving nearly full density.

Selective Laser Sintering

Selective Laser Sintering (SLS) is a 3D printing technology in which a laser beam selectively fuses polymer powder particles into three-dimensional objects.

The process occurs in a closed chamber where powder (most commonly nylon) is applied in thin layers. The laser heats and sinters specific areas according to the CAD model. After each layer, the powder bed is raised, and the process repeats until the product is complete. After printing, the unused powder supports the object, enabling the creation of complex shapes without support structures. SLS is used to produce mechanically durable prototypes and functional end products.

Digital Light Processing

Digital Light Processing (DLP) technology for 3D printing leverages a digital projector to project an image of each layer onto a liquid resin surface.

The process employs a digital projector, which uses a digital micromirror device (DMD) to project the entire layer of the model onto the resin's surface. Here, UV or visible light selectively cures the exposed parts. As the platform moves upward to create a new layer, the process repeats until the model is complete. The synchronized curing of entire layers makes DLP technology faster than SLA (Stereolithography) and ensures exceptionally high accuracy and fine detail resolution.

Fused Deposition Modeling

Fused Deposition Modeling (FDM) is a 3D printing technology where molten thermoplastic filament is deposited layer by layer through a heated nozzle.

Moving along the X, Y, and Z coordinates, the heated nozzle deposits material layer by layer until the model is fully formed. The most commonly used materials are PLA, ABS, and PETG. The advantages of FDM technology include low cost, ease of use, and a wide range of materials. Disadvantages are lower precision compared to some other more complex technologies and visible layer lines on the model's surface.


Product Examples

01
Chess figurine

Chess figurine

A chess figurine printed with Metal Binder Jetting.

02
Ring Tree

Rings for Casting

A tree with rings, designed for casting multiple rings at once.

03
Bike Seat

Bike Seat Prototype

A prototype for a bike seat, with PAHT and TPU 95A HF filaments used.

04
Cam Follower

Mechanism Part

Part of a mechanism for a packaging machine in the food industry.

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Upload your model, select the technology and material, check the 3D printing price, and submit your order.