Abstract: The inventions provided herein relate to silk-based scaffolds and methods of producing the same, which can be used for a range of tissue engineering applications. The fabrication methods described herein provide a versatile platform to incorporate hollow conduits (e.g., for nutrient/oxygen delivery) through three-dimensional silk-based scaffolds that have tunable bulk properties (e.g., but not limited to, porosity, mechanical, degradation rate) and allow endothelialization and/or cell compartmentalization, for engineering a variety of complex tissue equivalents.

Abstract: The inventions provided herein relate to silk-based scaffolds and methods of producing the same, which can be used for a range of tissue engineering applications. The fabrication methods described herein provide a versatile platform to incorporate hollow conduits (e.g., for nutrient/oxygen delivery) through three-dimensional silk-based scaffolds that have tunable bulk properties (e.g., but not limited to, porosity, mechanical, degradation rate) and allow endothelialization and/or cell compartmentalization, for engineering a variety of complex tissue equivalents.

Abstract: The inventions provided herein relate to silk-based scaffolds and methods of producing the same, which can be used for a range of tissue engineering applications. The fabrication methods described herein provide a versatile platform to incorporate hollow conduits (e.g., for nutrient/oxygen delivery) through three-dimensional silk-based scaffolds that have tunable bulk properties (e.g., but not limited to, porosity, mechanical, degradation rate) and allow endothelialization and/or cell compartmentalization, for engineering a variety of complex tissue equivalents.