Recapitulating developmental mechanisms in vitro necessitate models of intermediate complexity, between simple 2D culture and complex in vivo models, which integrate both physical and molecular cues. Here, we describe a cheap and simple bottom-up microfabrication method to build 3D millimeter-scale tissues with geometric shapes. These tissues are suitable for long-term culture in tissue-based assays and as implants for clinical applications. In a case study, we recapitulate some mechanisms of vasculogenesis, the assembly of capillary blood vessels
In vitro platforms to study endothelial cells and vascular biology are largely limited to 2D endothe...
Tissue engineering and regenerative medicine aim at restoring a damaged tissue by recreating in vitr...
Vascularization is a key factor in the successful integration of tissue engineered (TE) grafts insid...
Organs-on-chips are microengineered in vitro tissue structures that can be used as platforms for phy...
Tissue engineering strategies are gathering clinical momentum in regenerative medicine and are expec...
Design and fabrication of effective biomimetic vasculatures constitutes a relevant and yet unsolved ...
Abstract Vascularization of 3D models represents a major challenge of tissue engineering and a key p...
Modular tissue engineering (mTE) strategies aim to build three-dimensional tissue analogues in vitro...
In bottom-up tissue engineering, small modular units of cells and biomaterials are assembled toward ...
Recent advances in medicine and healthcare allow people to live longer, increasing the need for the ...
Microphysiological systems (MPSs) (i.e., tissue or organ chips) exploit microfluidics and 3D cell cu...
Current scientific attempts to generate in vitro tissue-engineered living blood vessels (TEBVs) show...
The increasing gap between clinical demand for tissue or organ transplants and the availability of d...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Mechanical Engineering, 2017.Ca...
Current scientific attempts to generate in vitro tissue-engineered living blood vessels (TEBVs) show...
In vitro platforms to study endothelial cells and vascular biology are largely limited to 2D endothe...
Tissue engineering and regenerative medicine aim at restoring a damaged tissue by recreating in vitr...
Vascularization is a key factor in the successful integration of tissue engineered (TE) grafts insid...
Organs-on-chips are microengineered in vitro tissue structures that can be used as platforms for phy...
Tissue engineering strategies are gathering clinical momentum in regenerative medicine and are expec...
Design and fabrication of effective biomimetic vasculatures constitutes a relevant and yet unsolved ...
Abstract Vascularization of 3D models represents a major challenge of tissue engineering and a key p...
Modular tissue engineering (mTE) strategies aim to build three-dimensional tissue analogues in vitro...
In bottom-up tissue engineering, small modular units of cells and biomaterials are assembled toward ...
Recent advances in medicine and healthcare allow people to live longer, increasing the need for the ...
Microphysiological systems (MPSs) (i.e., tissue or organ chips) exploit microfluidics and 3D cell cu...
Current scientific attempts to generate in vitro tissue-engineered living blood vessels (TEBVs) show...
The increasing gap between clinical demand for tissue or organ transplants and the availability of d...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Mechanical Engineering, 2017.Ca...
Current scientific attempts to generate in vitro tissue-engineered living blood vessels (TEBVs) show...
In vitro platforms to study endothelial cells and vascular biology are largely limited to 2D endothe...
Tissue engineering and regenerative medicine aim at restoring a damaged tissue by recreating in vitr...
Vascularization is a key factor in the successful integration of tissue engineered (TE) grafts insid...