Trusted by leading reseach insititues
WHAT CAN BIOPRINTING BE USED FOR?
Develop physiologically-relevant models to for pre-clinical drug discovery through disease modelling and tissue engineering. Converge a range of bioprinting technologies to accurately deposit multiple cell types and materials to mimic the biological counterpart. Produce functional skin tissue constructs for personalized medicine and cosmetic testing, or generate 3D cancer models to study tumor growth and evaluate drug efficacy.
Create perfusable tissue systems to simulate dynamic fluid flows and their effects on cellular interfaces. Deposit biological and non-biological materials within the same printjob to print entire devices or deposit material into pre-fabricated devices, auto aligned by our surface probing setup. Combine living and non-living materials within a printjob to produce micro-physiological devices ready for perfusion. For example, use our 3D bioprinter to fabricate perfusable liver tubules-on-a-chip models that can simulate in vivo liver physiology, enabling studies of drug metabolism and toxicity in a high-throughput and physiologically-relevant setting.
Fabricate personalized medicine with time-dependent release profiles and specific coatings to ensure the loacation-controlled release. Choose from existing architectures or create custom designs with full control over the process. Fabricate personalized medicine to study time-dependent release profiles and specific coatings to ensure the loacation-controlled release. Select from existing architectures or create custom designs with full control over the fabrication process. Produce stimuli-responsive structures from smart materials that open up the area of 4D bioprinting.
In the first step of the bioprinting process, you have the ability to choose up to 4 printheads from a range of options to achieve the desired level of complexity. Our printer's convergence of multiple printing technologies allows to combine a range of printing resolutions to form functional tissue constructs. Additionally, the printing surface can be tailored to meet your specific research needs. You can customize the surface by heating or cooling it to accommodate different materials and holding various types of cell culture vessels, such as petri dishes, glass slides, or well plates. You can even exchange the surface for a different one altogether, such as a rotary mandrel, to print tubular structures with precise dimensions and wall thicknesses.
Automated and contactless autocalibration of printheads and printing surface ensures that every printing process is executed reliably without contamination. This eliminates the need for manual calibration so you can focus on your research and let the bioprinting system handle the rest.
Our powerful software supports you in the generation of your desired structure with no coding required. Using drag-and-drop based blocks, you can easily create custom Gcode sequences of 2D and 3D structures. For more advanced users, our software also supports the slicing of 3D models. This feature allows you to take complete control over the fabrication process, and ensures that you can create even more complex and detailed structures.
The Gcode is wirelessly transferred to the printer, where your desired printing process is executed. You can monitor the real-time sensor data and observe the progress of the printing process on the screen. Furthermore, you can log the printing process into a report for future reference. This will help you keep track of your printing projects, and optimize your bioprinting parameters over time.
IN 4 EASY STEPS
In the first step of the bioprinting process, you have the ability to choose up to 4 printheads from a range of options to achieve the desired level of complexity. Our printer\’s convergence of multiple printing technologies allows to combine a range of printing resolutions to form functional tissue constructs. Additionally, the printing surface can be tailored to meet your specific research needs. You can customize the surface by heating or cooling it to accommodate different materials and holding various types of cell culture vessels, such as petri dishes, glass slides, or well plates. You can even exchange the surface for a different one altogether, such as a rotary mandrel, to print tubular structures with precise dimensions and wall thicknesses.
In step 2, the bioprinter automatically detects the location and height of the printheads in a contactless manner to avoid contamination. This ensures that the printing process is precise and reliable. Furthermore, the height of the printing surface is scanned to guarantee a repeatable print every single time. This eliminates the need for manual calibration and ensures consistent quality across all prints. With our automated calibration process, you can focus on the research and let our printer handle the rest. You can trust that your prints will have the accuracy and consistency required for your research.
Our powerful software supports you in the generation of your desired structure with no coding required. Using drag-and-drop based blocks, you can easily create custom Gcode sequences of 2D and 3D structures. For more advanced users, our software also supports the slicing of 3D models. This feature allows you to take complete control over the fabrication process, and ensures that you can create even more complex and detailed structures.
The Gcode is wirelessly transferred to the printer, where your desired printing process is executed. You can monitor the real-time sensor data and observe the progress of the printing process on the screen. Furthermore, you can log the printing process into a report for future reference. This will help you keep track of your printing projects, and optimize your bioprinting parameters over time.
Explore our adaptable bioprinter and start creating advanced tissue models.
Discover our range of high-precision printheads for accurate and efficient printing.
Learn more about our intuitive software for easy design and control of your bioprinting experiments.
TESTIMONIALS
Jeremy Dinoro, Phd
Researcher at University of Wollongong
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