A polymer composite includes a functionalized polyisobutylene and an additional polyisobutylene-containing material. One or more methods of making the polymer composite are also provided. Where the functionalized polyisobutylene is applied to a polyisobutylene-containing material, the method of applying the functionalized polyisobutylene compound can be described as a modular method.

A polymer composite includes a functionalized polyisobutylene and an additional polyisobutylene-containing material. One or more methods of making the polymer composite are also provided. Where the functionalized polyisobutylene is applied to a polyisobutylene-containing material, the method of applying the functionalized polyisobutylene compound can be described as a modular method.

A bio-ink composition comprises a plurality of bio-block, in which the bio-blocks can serve as basic building blocks in cell-based bioprinting. The bio-blocks, pharmaceutical compositions comprising the bio-blocks, methods of preparing artificial tissues, tissue progenitors, or multi-dimensional constructs, and methods of preparing the bio-blocks are also provided. The bio-blocks, and the multi-dimensional constructs, artificial tissues, and tissue progenitors comprising the bio-blocks or prepared by the methods described herein are useful for tissue engineering, in vitro research, stem cell differentiation, in vivo research, drug screening, drug discovery, tissue regeneration, and regenerative medicine.

Disclosed herein are devices and methods for repairing a heart defect. The disclosed devices, comprising a biodegradable gel and a biodegradable mesh scaffold, enhance cellular infiltration, vascularization, and degredation, while reducing fibrosis and rejection. In many embodiments, the mesh scaffold comprises one or more of polycaprolactone, gelatin, and polyurethane, and the gel comprises a biologically active compound decorated with polyethylene glycol. The disclosed heart patch devices possess elasticity and strength similar existing patch products derived from mammalian pericardium.

Disclosed herein are devices and methods for repairing a heart defect. The disclosed devices, comprising a biodegradable gel and a biodegradable mesh scaffold, enhance cellular infiltration, vascularization, and degredation, while reducing fibrosis and rejection. In many embodiments, the mesh scaffold comprises one or more of polycaprolactone, gelatin, and polyurethane, and the gel comprises a biologically active compound decorated with polyethylene glycol. The disclosed heart patch devices possess elasticity and strength similar existing patch products derived from mammalian pericardium.

Disclosed herein are devices and methods for repairing a heart defect. The disclosed devices, comprising a biodegradable gel and a biodegradable mesh scaffold, enhance cellular infiltration, vascularization, and degredation, while reducing fibrosis and rejection. In many embodiments, the mesh scaffold comprises one or more of polycaprolactone, gelatin, and polyurethane, and the gel comprises a biologically active compound decorated with polyethylene glycol. The disclosed heart patch devices possess elasticity and strength similar existing patch products derived from mammalian pericardium.

Methods are provided to make a prosthetic valve having a thin, biocompatible, high-strength, composite material. In one aspect, the composite material maintains flexibility in high-cycle flexural applications, making it particularly applicable to high-flex implants such as a heart valve leaflet. The composite material includes a porous expanded fluoropolymer membrane and an elastomer, wherein the elastomer is present in the pores of the porous expanded fluoropolymer.

Methods are provided to make a prosthetic valve having a thin, biocompatible, high-strength, composite material. In one aspect, the composite material maintains flexibility in high-cycle flexural applications, making it particularly applicable to high-flex implants such as a heart valve leaflet. The composite material includes a porous expanded fluoropolymer membrane and an elastomer, wherein the elastomer is present in the pores of the porous expanded fluoropolymer.

Methods are provided to make a prosthetic valve having a thin, biocompatible, high-strength, composite material. In one aspect, the composite material maintains flexibility in high-cycle flexural applications, making it particularly applicable to high-flex implants such as a heart valve leaflet. The composite material includes a porous expanded fluoropolymer membrane and an elastomer, wherein the elastomer is present in the pores of the porous expanded fluoropolymer.

The present invention relates to an ultra-thin film silk fibroin/collagen composite implant for tissue engineering and a manufacturing method therefor. The ultra-thin film silk fibroin/collagen silk fibroin/collagen composite implant according to the present invention has no cytotoxicity and can minimize the influence on cell growth, due to the combined use of a refined silk fibroin aqueous solution, collagen and various biomaterials, and thus can be widely used as an ultra-thin film implant for implanting.