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Cellular vascular-like microtubes occupy an important position in tissue engineering for building in vitro tissue models. In this paper, we report a method of constructing three-dimensional (3D) multilayered vascular-like microtubes based on fluidic axis-translation self-assembly of two-dimensional (2D) microstructures inside microfluidic devices. The on-chip fabrication of cell (fibroblasts NIH/3T3)...
Microfluidic devices provide efficient approaches for building cellular tubular structures for in vitro tissue models in tissue engineering. In this paper, we report a novel method of constructing three-dimensional (3D) multilayered tubular structures based on axis translation of two-dimensionally (2D) microstructures inside microfluidic devices. The on-chip fabrication of movable 2D microstructures...
Microfluidic devices provide efficient approaches for building bio-mimetic tubular structures for in vitro tissue models. In this paper, we report a novel method of constructing multilayered tubular structures embedding cells via a 2-layer microfluidic device. The on-chip fabrication of movable microstructures embedding fibroblasts (NIH/3T3) based on Poly (ethylene glycol) Diacrylate (PEGDA) was reported...
Microfluidic devices provide efficient approaches for building bio-mimetic tube-shaped structures for tissue engineering or in vitro tissue models. We report a novel method of constructing multi-layered tube-shaped microstructures embedding cells via a 2-layer microfluidic device. The on-chip fabrication of movable microstructures embedding fiber blast cell (NIH/3T3) based on Poly (ethylene glycol)...
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