3D bioprinters to create artificial human organs being developed
Researchers from US are working on 3D bioprinters to create replacement parts for damaged and failing human organs and tissue.
Washington: Researchers from US are working on 3D bioprinters to create replacement parts for damaged and failing human organs and tissue.
A new interdisciplinary manufacturing venture called the Advanced Manufacturing Technology (AMTecH) group at the University of Iowa College of Engineering`s Center for Computer Aided Design (CCAD) was formed to design, create, and test-both virtually and physically-a wide variety of electromechanical and biomedical components, systems and processes.
Tim Marler, AMTecH co-director said that electromechanical systems are one of two current branches of the group.
He said that they want to simulate, analyze and test printed circuit boards and assemblies, as they are used in a wide range of products from missiles to power plants to cell phones.
Marler said that the second branch of the group involves biomanufacturing, whose long-term goal to create functioning human organs some five or 10 years from now.
AMTecH co-director Ibrahim Ozbolat, assistant professor of mechanical and industrial engineering, said that using its facilities for engineering living tissue systems, the Biomanufacturing Laboratory at CCAD is working to develop and refine various 3D printing processes required for organ and tissue fabrication.
He said that one of the most promising research activities is bioprinting a glucose-sensitive pancreatic organ which can be grown in a lab and transplanted anywhere inside the body to regulate the glucose level of blood.
Ozbolat and Howard Chen, a UI doctoral student in industrial engineering, designed it and Chen built multi-arm bio printer being used in the lab.
While bioprinters at other institutions use one arm with multiple heads to print multiple materials one after the other, the University of Iowa device with multiple arms can print several materials concurrently.
This capability offers a time-saving advantage when attempting to print a human organ because one arm can be used to create blood vessels while the other arm is creating tissue-specific cells in between the blood vessels.