Enabling and Innovating the Science
Brinter® 3D bioprinting platforms use revolutionary 3D biomanufacturing technology to drive the field of 3D cell culture models, regenerative medicine and tissue engineering into the future.
Our bioprinter setups are always individually configured according to your research and manufacturing needs.
Bioprinting applications range from personalized tissue models for drug screening to printing complex drug formulations and ultimately to bioprinted entire functional organs from patients’ own cells for those in need of organ transplant.
As Brinter strives to build new technologies that advance the growing field of bioprinting, new application areas are conquered constantly. However, please have a look at some of the selected application areas and the recommended Brinter® configurations that we listed below.
Please contact us for any additional information on a suitable Brinter® setup that suits your application needs.
Enabling and Innovating the Science
Brinter® 3D bioprinting platforms use revolutionary 3D biomanufacturing technology to drive the field of 3D cell culture models, regenerative medicine and tissue engineering into the future.
Our bioprinter setups are always individually configured according to your research and manufacturing needs.
Bioprinting applications range from personalized tissue models for drug screening to printing complex drug formulations and ultimately to bioprinted entire functional organs from patients’ own cells for those in need of organ transplant.
As Brinter strives to build new technologies that advance the growing field of bioprinting, new application areas are conquered constantly. However, please have a look at some of the selected application areas and the recommended Brinter® configurations that we listed below.
Please contact us for any additional information on a suitable Brinter® setup that suits your application needs.
Bioprinting Applications
Bioprinting Applications
CELL BIOLOGY AND ONCOLOGY
Create the complexity of three-dimensional tumours in vitro by printing cancer models reproducible with Brinter®’s automated fabrication process. Replace the poorly translated mouse models with models that more accurately represent human tumour biology, enabling even personalization of anti-cancer drugs.
Bioprinting Applications
Bioprinting Applications
CELL BIOLOGY AND ONCOLOGY
Create the complexity of three-dimensional tumours in vitro by printing cancer models reproducible with Brinter®’s automated fabrication process. Replace the poorly translated mouse models with models that more accurately represent human tumour biology, enabling even personalization of anti-cancer drugs.
PRINT BODY PARTS AND ORGANS
Revolutionize the research of osteoarthritis and the future treatment of cartilage lesions by designing and printing hybrid constructs combining rigid and soft materials into a single structure. Alternatively, print a complex tissue model with overhangs from soft cell-embedded hydrogel inside a supporting gelatin slurry and wash it off afterwards to reveal a perfect printout.
PRINT BODY PARTS AND ORGANS
Revolutionize the research of osteoarthritis and the future treatment of cartilage lesions by designing and printing hybrid constructs combining rigid and soft materials into a single structure. Alternatively, print a complex tissue model with overhangs from soft cell-embedded hydrogel inside a supporting gelatin slurry and wash it off afterwards to reveal a perfect printout.
DRUG FORMULATION AND MICROFLUIDICS
Avoid the inherently time-consuming, labour-intensive and dose-inflexible conventional pharmaceutical manufacturing processes and conduct research and development of personalized therapeutic drug formulations by printing tablets or drug delivery devices with alternating sizes and shapes to realize varying release kinetics.
DRUG FORMULATION AND MICROFLUIDICS
Avoid the inherently time-consuming, labour-intensive and dose-inflexible conventional pharmaceutical manufacturing processes and conduct research and development of personalized therapeutic drug formulations by printing tablets or drug delivery devices with alternating sizes and shapes to realize varying release kinetics.