FOR SINGLE (OR MULTI-MATERIAL) 3D (BIO)PRINTING R&D AND PRODUCTION
Brinter® 3D printing technology is inspired by our space-grade innovations, ensuring exceptional performance in any environment.
Of materials sciences, printed drugs, tissue blocks, biosensors, materials and organs at Universities, University hospitals, Research organizations, Food, Bio, Pharma, Manufacturing and Healthcare Industries. The ongoing software & hardware development lets us design customized systems for each project. 3D (bio)printing with several printing technologies.
FOR SINGLE (OR MULTI-MATERIAL) 3D (BIO)PRINTING R&D OR PRODUCTION
Of materials sciences, printed drugs, tissue blocks, biosensors, materials and organs at Universities, University hospitals, Research organizations, Food, Bio, Pharma, Manufacturing and Healthcare Industries. The ongoing software & hardware development lets us design customized systems for each project. 3D (bio)printing with several printing technologies.
3D Printing with several printing technologies: Hydrogels suitable for cell culture usually have quite low viscosity, but 3D structures with defined shape usually require stiff materials (which are unable to support e.g. high cell viability).
One print head at a time with fast tool-free semi-automatic change method of Brinter® allows combined printing of stiff and soft materials and thus enable genuine multi-material printing of highly complex structures. Available printing technologies include pneumatic extrusion (Pneuma Tools), screw-driven mechanical extrusion, i.e. endless piston pump (Rotary Tool & Visco Tool), electromagnetically actuated microvalve droplet dispensing (Droplet Tool), and thermoplastic granulate extrusion (Granu Tool).
The Brinter® software is an intuitive web browser-based user interface that requires no downloads. The UI comes with an integrated slicer for the conversion of a 3D object model (.STL format) to specific instructions for the printer (g- code format). The only accessory you need is any 3D design software capable of exporting STL files so that you can design the printable CAD models. Once your structure has been imported into the slicer, you can configure the internal mesh along with a wide range of other printing parameters, such as support and layer specific parameters before sending the g-code to Brinter® to start the actual print job.
Next-generation 3D (Bio)printing Solution key features: