High open-pore content and high mechanical strength are important in Tissue engineering.
However, an increase in one property is often at the expense of the other. This study reports …

The aim of this study was to combine gas foaming (GF) and reverse templating techniques to
prepare open-pore polymeric foams with pore structures specifically designed for tissue …

This paper provides a method combining eco-friendly supercritical CO2 microcellular
foaming and polymer leaching to fabricate small-diameter vascular tissue engineering …

Poly (ε-caprolactone)/poly (lactic acid)(PCL/PLA) blends are very promising materials with
biodegradable characteristics and tailorable performance for many applications. In this …

The aim of this study was to prepare poly‐ϵ‐caprolactone (PCL) foams, with a well‐defined
micrometric and bimodal open‐pore dimension distribution, suitable as scaffolds for tissue …

Abstract Small diameter (diameter< 6 mm) vascular scaffolds lead to increased
hemodynamic disturbances and thrombogenic complications which challenged the material …

Biocompatible and biodegradable foams prepared using the high-pressure foaming
technique have been widely investigated in recent decades as porous scaffolds for in vitro …

A dual‐pore network is favored in applications such as tissue engineering scaffolds. In this
paper, foamed microcapillary films (FMCFs) are prepared based on a poly (lactic acid)/poly …

Tissue engineering combines isolated functional cells and a biodegradable biomaterial to
promote the regeneration of repair diseased or injured tissues. A highly porous scaffold …

Scaffolding plays pivotal role in tissue engineering. In this work, a novel processing
technique has been developed to create three-dimensional biodegradable polymer …