Для цитирования:
Koronevskiy N. V., Saveleva M. S., Lomova M. V., Sergeeva B. V., Kozlova A. A., Sergeev S. A. Composite mesoporous vaterite-magnetite coatings on polycaprolactone fibrous matrix [Короневский Н. В., Савельева М. С., Ломова М. В., Сергеева Б. В., Козлова А. А., Сергеев С. А. Композитные мезопористые ватерит-магнетитовые покрытия, выращенные на матрице из волокон поликапролактона] // Известия Саратовского университета. Новая серия. Серия: Физика. 2022. Т. 22, вып. 1. С. 62-71. DOI: 10.18500/1817-3020-2022-22-1-62-71, EDN: ZVKDTY
Composite mesoporous vaterite-magnetite coatings on polycaprolactone fibrous matrix
[Композитные мезопористые ватерит-магнетитовые покрытия, выращенные на матрице из волокон поликапролактона]
Представлены методы модификации кальций карбонатного покрытия, сформированного на волокнах поликапролактона, наночастицами магнетита. Разрабатываемая структура может быть использована в качестве тканеинженерного каркаса и одновременно средства доставки лекарственных веществ с возможностью контроля процесса высвобождения, что позволит использовать её в регенерационной медицине. Определено время перекристаллизации покрытий на волокнах поликапролактона, состоящих из микрочастиц карбоната кальция, из полиморфного состояния ватерит в кальцит. Использование метода адсорбции, индуцированной кристаллизацией, является наиболее эффективным, что доказывается временем перекристаллизации микрочастиц карбоната кальция, модифицированных наночастицами магнетита, выращенных на поверхности волокон поликапролактона, которое сравнимо с контрольным образцом. Композитные покрытия на волокнах поликапролактона, полученные методом копреципитации солей и магнетита и методом ультразвуковой обработки, имеют более короткий период перекристаллизации.
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