Tissue engineering makes use of 3D scaffolds to sustain three‐dimensional growth of cells
and guide new tissue formation. To meet the multiple requirements for regeneration of …

Porous biodegradable scaffolds provide a physical substrate for cells allowing them to
attach, proliferate and guide the formation of new tissues. A variety of techniques have been …

The development of structures with a predefined multiscale pore network is a major
challenge in designing tissue engineering (TE) scaffolds. To address this, several strategies …

Poly (l‐lactic acid) and its copolymers with d‐lactic and glycolic acid were used to fabricate
various porous biodegradable scaffolds suitable for tissue engineering and drug delivery …

Scaffolds suitable for tissue engineering applications like dermal reconstruction were
prepared by Thermally Induced Phase Separation (TIPS) starting from a ternary solution …

The structural features of tissue engineering scaffolds affect cell response and must be
engineered to support cell adhesion, proliferation and differentiation. The scaffold acts as an …

Tissue engineering is a multidisciplinary field that uses engineering materials called
scaffolds to support cell seeding and biochemical factors with the aim to regenerate …

The goal of tissue engineering is to replace or regenerate damaged tissue. Scaffold
fabrications and biomaterial selections are crucial factors for artificial tissue and bone tissue …

To better mimic the mineral component and the microstructure of natural bone, novel nano-
hydroxyapatite (NHAP)/polymer composite scaffolds with high porosity and well-controlled …

The development of three-dimensional (3D) biomimetic scaffolds which provide an optimal
environment for cells adhesion, proliferation and differentiation, and guide new tissue …