Microporosity has a critical role in improving the osteogenesis of scaffolds for bone tissue
engineering. Although the exact mechanism, by which it promotes new bone formation, is …

An appropriate cell microenvironment is key to tissue engineering and regenerative
medicine. Revealing the factors that influence the cell microenvironment is a fundamental …

This paper systematically investigates the biomedical performance of selective laser melted
(SLM) porous Ti6Al4V ELI scaffolds for bone implantation through in vitro and in vivo …

Porosity and pore size of biomaterial scaffolds play a critical role in bone formation in vitro
and in vivo. This review explores the state of knowledge regarding the relationship between …

Tissue engineering is an interdisciplinary and multidisciplinary field. It has shown great
promise in generating living alternatives for harvested tissues and organs for transplantation …

Significant advances have been made in bone tissue engineering (TE) in the past decade.
However, classical bone TE strategies have been hampered mainly due to the lack of …

In order to unravel the mechanism of osteoinduction by biomaterials, in this study we
investigated the influence of the specific surface area on osteoinductive properties of two …

Organ or tissue printing, a novel approach in tissue engineering, creates layered, cell-laden
hydrogel scaffolds with a defined three-dimensional (3D) structure and organized cell …

Photopolymerizable hydrogels, formed by UV-exposure of photosensitive polymers in the
presence of photoinitiators, are widely used materials in tissue engineering research …

This study presents an evaluation of the effects of pore diameter and porosity on the
mechanical properties and biocompatibility of Ti6Al4V ELI periodic lattice structures …