Organ engineering: promise, progress and perspective
Author(s) -
Michelle E. Scarritt,
Stephen F. Badylak
Publication year - 2016
Publication title -
the biochemist
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.126
H-Index - 7
eISSN - 1740-1194
pISSN - 0954-982X
DOI - 10.1042/bio03804020
Subject(s) - decellularization , scaffold , organ transplantation , tissue engineering , extracellular matrix , economic shortage , regenerative medicine , transplantation , organ system , process (computing) , medicine , biomedical engineering , biology , pathology , computer science , stem cell , microbiology and biotechnology , surgery , disease , linguistics , philosophy , government (linguistics) , operating system
The only curative treatment option for patients with end-stage organ failure is transplantation. Organ engineering offers an alternative to traditional transplantation that may address the critical shortage of donor organs and eliminate the need for recipient immunosuppression. Organ engineering may be accomplished through the use of scaffold – support structures that contain the architecture of an organ. As organs are exceedingly complex, creating an organ scaffold is a difficult task; however, organ scaffolds can be derived through a process known as decellularization, which is the mechanical, chemical and/or enzymatic removal of cells from a tissue or organ. Through decellularization of xenogenic (animal) organs, biocompatible extracellular matrix (ECM) scaffolds can be produced that retain the complex macroscopic and microscopic structure and composition of the native organ ECM. These 3D ECM scaffolds are ideal for engineering human organs.
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