Animal models for intestinal tissue engineering

Although total parenteral nutrition prevents patients with short bowel syndrome from dying of starvation, having short bowel remains a severely debilitating condition. The best current treatment for inadequate absorptive surface area is through intestinal transplantation. However, this therapy is as...

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Veröffentlicht in:Biomaterials 2004-04, Vol.25 (9), p.1675-1681
Hauptverfasser: Chen, M.K., Beierle, E.A.
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creator Chen, M.K.
Beierle, E.A.
description Although total parenteral nutrition prevents patients with short bowel syndrome from dying of starvation, having short bowel remains a severely debilitating condition. The best current treatment for inadequate absorptive surface area is through intestinal transplantation. However, this therapy is associated with significant morbidity and patients suffer from consequences of long-term immunosuppression. Additionally, the numbers of organs are limited. A new frontier in medicine is the field of tissue engineering. We will review the progress of intestinal bioengineering with a focus on the use of animal models. Investigators initially used autologous tissue as a patch to study intestinal regeneration. Subsequent studies focused on the use of absorbable biomaterials as a patch for tissue ingrowth. The most novel methodology consists of seeding a resorbable scaffold and implanting this construct to observe the regeneration of neointestine. Successful creation of esophagus, stomach, small bowel and colon has been demonstrated. Although these studies are preliminary, the results suggest that tissue-engineered intestine will become a real therapeutic option in the not too distant future for patients with inadequate intestinal tissue.
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The best current treatment for inadequate absorptive surface area is through intestinal transplantation. However, this therapy is associated with significant morbidity and patients suffer from consequences of long-term immunosuppression. Additionally, the numbers of organs are limited. A new frontier in medicine is the field of tissue engineering. We will review the progress of intestinal bioengineering with a focus on the use of animal models. Investigators initially used autologous tissue as a patch to study intestinal regeneration. Subsequent studies focused on the use of absorbable biomaterials as a patch for tissue ingrowth. The most novel methodology consists of seeding a resorbable scaffold and implanting this construct to observe the regeneration of neointestine. Successful creation of esophagus, stomach, small bowel and colon has been demonstrated. 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subjects Absorbable Implants
Animal model
Animals
Biomaterials
Cell Culture Techniques - instrumentation
Cell Culture Techniques - methods
Disease Models, Animal
Feasibility Studies
Humans
Intestinal Mucosa - growth & development
Intestinal Mucosa - transplantation
Intestine
Intestines - surgery
Regeneration
Scaffold
Short Bowel Syndrome - surgery
Tissue engineering
Tissue Engineering - instrumentation
Tissue Engineering - methods
Tissue Transplantation - instrumentation
Tissue Transplantation - methods
title Animal models for intestinal tissue engineering
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