Tissue-engineered skin equivalents mimic key aspects of the human skin, and can thus be employed as wound coverage for large skin defects or as in vitro test systems as an alternative to animal models. However, current skin equivalents lack a functional vasculature limiting clinical and research applications. This study demonstrates the generation of a vascularized skin equivalent with a perfused vascular network by combining a biological vascularized scaffold (BioVaSc) based on a decellularized segment of a porcine jejunum and a tailored bioreactor system. Briefly, the BioVaSc was seeded with human fibroblasts, keratinocytes, and human microvascular endothelial cells. After 14 days at the air-liquid interface, hematoxylin & eosin and immun...
Angiogenesis assays are essential for studying aspects of neovascularisation and angiogenesis and in...
Organs-on-a-chip systems are biomimetic devices containing microfluidic channels and chambers popula...
The bio-engineering of vascular networks is pivotal to create complex tissues and organs in vitro f...
Tissue-engineered skin equivalents mimic key aspects of the human skin, and can thus be employed as ...
Introduction In vitro test systems gain increasing importance to improve predictivity and to reduce ...
For patients with extensive burns, wound coverage with an autologous in vitro reconstructed skin mad...
A pivotal requirement for the generation of vascularized tissue equivalents is the development of cu...
The need for clinically applicable skin substitutes continues to be a matter of fact. Hypothetically...
Successful in vitro reconstruction of skin requires the inclusion of several cell types that give ri...
Copyright © 2013 Yuan Liu et al.This is an open access article distributed under the Creative Common...
The field of tissue engineering offers novel and innovative treatments for tissue/organ dysfunction ...
International audienceVascularization of reconstructed tissues is one of the remaining hurdles to be...
The major limitation for the application of an autologous in vitro tissue-engineered reconstructed s...
One of the greatest challenges currently faced in tissue engineering is the incorporation of vascula...
The major problem in skin grafting is that tissue-engineered skin grafts after their transplantation...
Angiogenesis assays are essential for studying aspects of neovascularisation and angiogenesis and in...
Organs-on-a-chip systems are biomimetic devices containing microfluidic channels and chambers popula...
The bio-engineering of vascular networks is pivotal to create complex tissues and organs in vitro f...
Tissue-engineered skin equivalents mimic key aspects of the human skin, and can thus be employed as ...
Introduction In vitro test systems gain increasing importance to improve predictivity and to reduce ...
For patients with extensive burns, wound coverage with an autologous in vitro reconstructed skin mad...
A pivotal requirement for the generation of vascularized tissue equivalents is the development of cu...
The need for clinically applicable skin substitutes continues to be a matter of fact. Hypothetically...
Successful in vitro reconstruction of skin requires the inclusion of several cell types that give ri...
Copyright © 2013 Yuan Liu et al.This is an open access article distributed under the Creative Common...
The field of tissue engineering offers novel and innovative treatments for tissue/organ dysfunction ...
International audienceVascularization of reconstructed tissues is one of the remaining hurdles to be...
The major limitation for the application of an autologous in vitro tissue-engineered reconstructed s...
One of the greatest challenges currently faced in tissue engineering is the incorporation of vascula...
The major problem in skin grafting is that tissue-engineered skin grafts after their transplantation...
Angiogenesis assays are essential for studying aspects of neovascularisation and angiogenesis and in...
Organs-on-a-chip systems are biomimetic devices containing microfluidic channels and chambers popula...
The bio-engineering of vascular networks is pivotal to create complex tissues and organs in vitro f...