Magnesium alloys are attractive for use as biodegradable materials for temporary implant applications. However, the high localized degradation of magnesium alloys in physiological conditions is a major concern, which can affect the mechanical integrity of the implant during service. Calcium phosphate (CaP) coating is a suitable method to delay the initiation of localized attack in magnesium alloys. This paper will discuss the challenges and opportunities in electrochemically coating CaP on magnesium and its magnesium alloys for biodegradable implant applications
Magnesium (Mg) was originally developed as a degradable metallic biomaterial for orthopaedic applica...
Magnesium alloys have promising mechanical and biological properties for the development of degradab...
The wide application of magnesium alloys as biodegradable implant materials is limited because of th...
Magnesium and its alloys have been widely studied in recent years for load-bearing biodegradable imp...
Successful application of magnesium-based alloys as biodegradable biomaterials is critically depende...
The use of implants for bone repair has a considerable and successful history. Traditionally, metall...
The effect of a hybrid coating, calcium phosphate (CaP) + polylactic acid (PLA), on a magnesium allo...
In the field of biodegradable material, a new research area has emerged for magnesium (Mg) and its a...
Magnesium is an attractive metallic material for temporary implant applications. Magnesium readily d...
Calcium phosphate (CaP) was electrochemically coated on a magnesium–calcium (Mg–Ca) alloy using an u...
Owing to their suitable mechanical property and biocompatibility as well as the technological possib...
Magnesium, a light-weight engineering metal, is a potential biomaterial for orthopaedic biodegradabl...
Owing to their suitable mechanical property and biocompatibility as well as the technological possib...
In this study, a dual layer inorganic coating was formed on a pure magnesium metal using electrochem...
Today, Magnesium (Mg) based alloys are receiving increasing attention as potential biodegradable imp...
Magnesium (Mg) was originally developed as a degradable metallic biomaterial for orthopaedic applica...
Magnesium alloys have promising mechanical and biological properties for the development of degradab...
The wide application of magnesium alloys as biodegradable implant materials is limited because of th...
Magnesium and its alloys have been widely studied in recent years for load-bearing biodegradable imp...
Successful application of magnesium-based alloys as biodegradable biomaterials is critically depende...
The use of implants for bone repair has a considerable and successful history. Traditionally, metall...
The effect of a hybrid coating, calcium phosphate (CaP) + polylactic acid (PLA), on a magnesium allo...
In the field of biodegradable material, a new research area has emerged for magnesium (Mg) and its a...
Magnesium is an attractive metallic material for temporary implant applications. Magnesium readily d...
Calcium phosphate (CaP) was electrochemically coated on a magnesium–calcium (Mg–Ca) alloy using an u...
Owing to their suitable mechanical property and biocompatibility as well as the technological possib...
Magnesium, a light-weight engineering metal, is a potential biomaterial for orthopaedic biodegradabl...
Owing to their suitable mechanical property and biocompatibility as well as the technological possib...
In this study, a dual layer inorganic coating was formed on a pure magnesium metal using electrochem...
Today, Magnesium (Mg) based alloys are receiving increasing attention as potential biodegradable imp...
Magnesium (Mg) was originally developed as a degradable metallic biomaterial for orthopaedic applica...
Magnesium alloys have promising mechanical and biological properties for the development of degradab...
The wide application of magnesium alloys as biodegradable implant materials is limited because of th...