An innovative technique to produce dissolvable calcium alginate microfibers using an immersed microfluidic spinning process for creating tissue constructs and vascularized tissue implants.
·Tissue engineering, including vascularized tissue implants.
·Biotechnology research and applications.
·Simple technique to create a stochastic network of dissolvable fibers appropriate for highly vascularized tissue constructs.
·Cost-effective compared to traditional fluidic spinning techniques.
·Minimized complexity inherent in microfabricated chips or coaxial needles.
Alginate microfibers with diameters of tens to hundreds of microns are important for tissue engineering, but these diameters are impossible to fabricate via electrospinning and can only be produced via fluidic spinning. Typically microfluidic spinning produces fibers that are not easily dissolvable and fluidic spinning techniques require complicated microfabricated ships or coaxial needles, introducing significant costs and complexity. The Kulinsky lap has developed a simple setup, using a single needle, for immersed microfluidic spinning of dissolvable calcium alginate microfibers to create highly vascularized constructs for tissue engineering and implants.
Experimental Stage
Patent Pending