Successful bone tissue engineering strategies require 3D scaffolds with controllable
properties tailored to the intended clinical applications. The scaffold as a temporary …

Taking inspiration from nature, triply periodic minimal surfaces (TPMS) are tailored as a
promising tool for designing internal pore architecture of porous biomaterials. In the next …

In bone tissue engineering, gradient scaffolds have drawn more attention for having better
bionic characteristics than uniform scaffolds. In this study, a parameterized method for …

The combination of computational methods with 3D printing allows for the control of
scaffolds microstructure. Lately, triply periodic minimal surfaces (TPMS) have been used to …

Scaffolds with favorable biological characteristics and controlled functional gradient
architectures are preferable for the repair of damaged tissues in bone tissue engineering. In …

The ability of cells to sense various cues present within their natural habitat gives a
tremendous opportunity to steer their fate in vitro within artificial matrices (scaffolds) …

Abstract Three-dimensional (3D) scaffolds have many advantageous properties for bone
tissue engineering application, due to its controllable properties such as pore size, structural …

The main aim of this research is to numerically obtain the permeability coefficient in the
cylindrical scaffolds. For this purpose, a mathematical analysis was performed to derive an …

The degradation rate of polyester scaffolds has been emphasised as one of the main areas
of concern in bone tissue engineering. In ideal conditions, the degradation of polymeric …

Addressing the repair of large-scale bone defects has become a hot research topic within
the field of orthopedics. This study assessed the feasibility and effectiveness of using porous …