This study shows the effect of dynamic flow on the degradation behaviour and mechanical integrity of porous magnesium. A test rig that mimics the environment surrounding a cancellous bone was developed and a dynamic immersion test was performed to assess the degradation rate of the material for bone scaffold application. Three different percentages of porous magnesium (30%, 41%, and 55%) were immersed in simulated body fluid. The results show that mass loss and mechanical integrity of the specimens deteriorated linearly with an increase in porosity and degradation time, correlating to a drop of 41% and 89%, respectively, within 3 days
AbstractThis article reports a novel impedance-driven flow apparatus and its applicability for study...
Background. Pure magnesium and its alloys are promising biodegradable biomaterials for cardiovascula...
The use of degradable magnesium based implants is becoming clinically relevant, e.g. for the use as ...
This study analyses the effect of different flow rates on the degradation behaviour of porous magnes...
Biodegradable metals have been suggested for bone scaffold applications due to their mechanical prop...
The purpose of this study is to analyze the influence of morphology on the degrading behavior of por...
This paper proposes a modeling approach for biodegradation of implant-bone scaffolds. A Computer sim...
Medical implants play a key role in treating bone fractures. Permanent implants are currently used f...
The degradation rate of magnesium (Mg) alloys is a key parameter to develop Mg-based biomaterials an...
In the present study, the effects of human physiological activity levels on the fatigue life of a po...
Biodegradable bone implants have the ability to be resorbed and removed from the human body after th...
Recently magnesium has been recognized as a very promising biomaterial for bone substitutes because ...
Interest in cancellous bone analogous materials is driven by the development of tissue engineering a...
The biggest challenge with magnesium alloy biodegradable implants is the rapid corrosion at the earl...
The current physiological in vitro tests of Mg degradation follow the procedure stated according to ...
AbstractThis article reports a novel impedance-driven flow apparatus and its applicability for study...
Background. Pure magnesium and its alloys are promising biodegradable biomaterials for cardiovascula...
The use of degradable magnesium based implants is becoming clinically relevant, e.g. for the use as ...
This study analyses the effect of different flow rates on the degradation behaviour of porous magnes...
Biodegradable metals have been suggested for bone scaffold applications due to their mechanical prop...
The purpose of this study is to analyze the influence of morphology on the degrading behavior of por...
This paper proposes a modeling approach for biodegradation of implant-bone scaffolds. A Computer sim...
Medical implants play a key role in treating bone fractures. Permanent implants are currently used f...
The degradation rate of magnesium (Mg) alloys is a key parameter to develop Mg-based biomaterials an...
In the present study, the effects of human physiological activity levels on the fatigue life of a po...
Biodegradable bone implants have the ability to be resorbed and removed from the human body after th...
Recently magnesium has been recognized as a very promising biomaterial for bone substitutes because ...
Interest in cancellous bone analogous materials is driven by the development of tissue engineering a...
The biggest challenge with magnesium alloy biodegradable implants is the rapid corrosion at the earl...
The current physiological in vitro tests of Mg degradation follow the procedure stated according to ...
AbstractThis article reports a novel impedance-driven flow apparatus and its applicability for study...
Background. Pure magnesium and its alloys are promising biodegradable biomaterials for cardiovascula...
The use of degradable magnesium based implants is becoming clinically relevant, e.g. for the use as ...