Випуски $\rightarrow$ Том 23, випуск 4 (2022)

Поруватий маґній та його застосування

У. Герліна$^{1,2}$, Ф. Нурджаман$^1$, Ф. Бахфі$^1$, А. С. Хандоко$^1$, С. Сумарді$^1$, І. Сукмана$^2$, Е. Прасетйо$^{1,3}$, Д. Сусанті$^4$

$^1$Дослідницький центр технології гірничих робіт, Національна аґенція досліджень та інновацій Індонезії, Південний Лампунґ, 35361 Лампунґ, Індонезія
 $^2$Кафедра машинобудування, інженерний факультет, Університет Лампунґа, Бандар Лампунґ, 35141 Лампунґ, Індонезія
 $^3$Кафедра хімічної технології, Норвезький університет науки і технологій, 7491 Тронгейм, Норвегія
 $^4$Кафедра металурґії й опрацювання матеріальних потоків, Факультет промислових технічних засобів та системотехніки, Технологічний інститут Десятого листопада, 60111 Сурабая, Східна Ява, Індонезія

Отримано 28.05.2022; остаточна версія — 13.10.2022 Завантажити PDF logo PDF

Анотація
Металеві біоматеріали зазнають революції з розробленням матеріалів, які розкладаються мікроорганізмами, включаючи кілька металів, стопів і металевих стекол. Таким чином природа металевих біоматеріалів трансформується з біоінертних у біоактивні та мультибіофункціональні. Біоматеріали на основі маґнію є кандидатами на використання в якості металів нового покоління, які розкладаються мікроорганізмами. Маґній може розчинятися в рідині організму; це означає, що імплантований маґній може руйнуватися під час процесу загоєння, а якщо розпад контролювати, то він не залишатиме відходи після завершення загоєння. Дослідники працюють над синтезом і характеризацією біоматеріалів на основі Mg з різноманітним складом, щоби контролювати швидкість розщеплення маґнію, оскільки неконтрольоване розщеплення може призвести до втрати механічної цілісности, металевого забруднення в організмі та неприпустимого виділення водню тканинами. Помічено, що застосовані методи синтезу та вибір компонентів впливають на характеристики та продуктивність біоматеріалів на основі Mg.

Ключові слова: матеріали, які розкладаються мікроорганізмами, біоматеріали на основі Mg, синтез, характеризація.

Citation: U. Herlina, F. Nurjaman, F. Bahfie, A. S. Handoko, S. Sumardi, I. Sukmana, E. Prasetyo, and D. Susanti, Porous Magnesium and Its Application, Progress in Physics of Metals, 23, No. 4: 756–778 (2022); https://doi.org/10.15407/ufm.23.04.756

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