New soluble magnesium-based alloys for use in traumatology




osteosynthesis, magnesium, biodegradable implant, physical and chemical properties


Objective:to develop a new magnesium-based alloy with physi­cal and chemical properties that allow to use it for osteosyn­thesis.

Methods:we developed prototypes by doping the silver standard and scandium alloys based on magnesium ML-5 and ML-10. Studied their strain, macro-and microstructure by light surface microscopic metallographic analysis. The rate of dis­solution of magnesium alloys studied in physiological solutions with various sodium chloride (NaCl, Helofuzyn, Venofundyn).

Results:mechanical tests have shown that microalloying alloys ML-5 and ML-10 silver and scandium increased their strength and ductility. Established that the dissolution rate of magnesium alloys depending on their chemical composition and structure may change more than 500 times. The study of solubility in alloy ML-10 Helofuzyni allowed to establish that the optimal content of silver in the alloy can be 0.05–0.07 % by weight, as increased its content to 1.0 % almost does not change the average rate of solubility.

Conclusions: increased physical and mechani­cal properties of magnesium alloys and regulated their disso­lution in physiological solutions provided input into the com­position of silver or scandium. This found that the optimal content of these elements in magnesium alloy is in the range 0.05– 0.1 % (wt.). ML-10 strength alloy containing 0.05 % silver, more than 2 times exceeds the strength of bone man. At the mac­ro and mikroriv-not studied the process of dissolution of mag­nesium alloy with silver ML-10 in Venofundyni and determined the speed of the metal in it. Duration properties preserving strong magnesium alloy ML-10 during contact with physiological solution can be significantly increased by changing parameters such as geometry and thickness of the metal.


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