Please note: The Research + Innovation office will be closed for the holidays from noon on December 24 through January 2nd, inclusive. 鉂勶笍 Veuillez noter que le bureau de la Recherche et de l'Innovation sera ferm茅 pour les vacances du 24听d茅cembre 脿 midi jusqu鈥檃u 2听janvier inclus.
News
Biocompatible and non-destructive modification of scaffold surfaces for tissue engineering
Published: 10 October 2019
Invention 15012
Biocompatible and non-destructive modification of scaffold surfaces for tissue engineering
听
A biocompatible technique to modify scaffold surfaces for better cellular integration during tissue engineering has been developed at 捆绑SM社区.
听
Market Need
During bone tissue engineering, synthetic polymers such as polyesters are commonly used to make scaffolds. This scaffold surface is the first spot cells contact upon implantation and determines their proper adherence and growth. While polyesters are biocompatible, they are hydrophobic, which is a property known to prevent maximum adhesion and spreading of cells. Also, they have no surface groups that help cell growth or function. It is therefore crucial to modify the surface of the scaffold to enhance integration into the body. Current techniques, however, degrade the scaffolding material and are expensive.
听
Technology Summary
With this technique, common scaffolds and other polymeric surfaces can be modified homogenously and non-destructively. Using a simple two-step procedure, the technique of diazonium chemistry was found to modify the outer and inner surfaces of three-dimensional scaffolds for bone tissue engineering in a non-degrading fashion. Not only can specific functional groups be applied to the surface to help the proliferation of many different cell types, but the method is biocompatible, inexpensive, and can be applied to the surface of any shape.
听
Advantages
- Application of functional groups to the surface of scaffolds to enhance cellular attachment
- Non-degrading to the scaffold鈥檚 surface
- Not expensive, biocompatible, and can be applied to any shape
听
Patent Status
Filed US
听