
AbstractFibrin is a natural biopolymer with many interesting properties, such as biocompatibility, bioresorbability, ease of processing, ability to be tailored to modify the conditions of polymerization, and potential for incorporation of both cells and cell mediators. Moreover, the fibrin network has a nanometric fibrous structure, mimicking extracellular matrix, and it can also be used in autologous applications. Therefore, fibrin has found many applications in tissue engineering, combined with cells, growth factors, or drugs. Because a major limitation of cardiac cell therapy is low cell engraftment, the use of biodegradable scaffolds for specific homing and in situ cell retention is desirable. Thus, fibrin‐based injectable cardiac tissue engineering may enhance cell therapy efficacy. Fibrin‐based biomaterials can also be used for engineering heart valves or cardiac patches. The aim of this review is to show cardiac bioengineering uses of fibrin, both as a cell delivery vehicle and as an implantable biomaterial.
Fibrin, Bioartificial Organs, Tissue Engineering, Tissue Scaffolds, Myocardium, Biocompatible Materials, Heart, Regenerative Medicine, Animals, Humans, Regeneration
Fibrin, Bioartificial Organs, Tissue Engineering, Tissue Scaffolds, Myocardium, Biocompatible Materials, Heart, Regenerative Medicine, Animals, Humans, Regeneration
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