Bone healing is an impressive ability of the human body, but critical-sized bone defects
require external intervention. Bioceramic scaffolds with excellent biocompatibility and …

Tissue engineering has acquired remarkable attention as an alternative strategy to treat and
restore bone defects during recent years. A scaffold is a fundamental component for tissue …

Bioactive glasses and glass-ceramics have recently found key applications in biomedicine,
mainly for bone repair and replacement. Recent developments in the field of tissue …

With improvement of orthopaedic technologies for bone replacement and regeneration,
there is an increasing need for materials with superior properties. Mg-containing silicate …

The use of bioceramics as hard tissue substitutes is extensive due to their excellent
biocompatible and osteogenic behaviors. Among various bioceramics, Ca-Mg silicates are …

In today's medicine world, alumina‐based biomaterials owing to their excellent
biomechanical, and biocompatibility properties play a key role in biomedical engineering …

58S bioactive glass (BG) has effective biocompatibility and bioresorbable properties for
bone tissue engineering; however, it has limitations regarding antibacterial, antioxidant, and …

Rapid degradation of magnesium (Mg) alloys is the major drawback preventing these
materials from being applicable as tissue engineering scaffolds. In order to resolve this …

Tissue regeneration is rapidly evolving to treat anomalies in the entire human body. The
production of biodegradable, customizable scaffolds to achieve this clinical aim is …

The high corrosion rate of Mg alloys has hindered their application in various areas,
particularly for orthopedic applications. In order to decrease the corrosion rate and to …