Cancer testing/screening procedures used in developing new drug therapies take years and are founded on the use of 2D cell cultures and animal models prior to human trials. This pathway is not always representative of how a drug will perform in humans since 2D technology cannot print multi-material bio-cell structures for evaluating new drug performance. To improve this process, research has focused on multi-material 3D bioprinting incorporating the additive manufacturing process to construct cell-embedded hydrogel structures for cancer drug screening.
The conceptual technology presents a stereolithography-based bioprinter working on a UV range of 380 nm capable of printing 3D cell-embedded hydrogel-based microfluidic chips for cancer drug studies in a single step eliminating model construction, cell positioning, or UV curing. The printed microfluidic chip model includes in-vivo cell positioning design and can replicate in-vivo stiffness of organs/tissues with varying hydrogel concentrations.
Competitive Advantages
Opportunity
Rowan University is seeking a partner(s) for further development and commercialization of this technology. The inventor is available to collaborate with interested companies.