Русский
English 58-80 стр.
За последние два десятилетия были открыты новые физические и структурные свойства оксида железа, особенно в нанометровом диапазоне, которые нашли применение в различных инженерных, бионаномедицинских, экологических и высокотехнологичных отраслях. Изучено несколько методов синтеза магнитных наночастиц оксида железа, влияющих на их размер, распределение по размерам, элементный состав, кристаллическую структуру и множество других физических свойств. Также подробно объясняются достижения в стратегиях химии поверхности для функционализмами магнитных наночастиц на основе оксида железа. Многие вещества используются для поверхностного покрытия и функционализмами МНЧ, включая органические и неорганические соединения. Цель настоящего обзора состоит в том, чтобы предоставить отчет об активности развития композитных Мелкие магнитные объекты и уделить внимание модифицированным наночастицам на основе оксида железа, которые являются стабильными, легко синтезируются, обладают высокой удельной поверхностью и могут быть легко отделены с помощью магнитного поля. Из-за высокой поверхностной энергии наночастиц оксида железа часто встречается их агломерация со временем. Таким образом, крайне важно модифицировать их поверхность, чтобы предотвратить агрегацию и ограничить адсорбцию флуоресцентных молекул на их поверхности. Кроме того, такие химические модификации приводят к тому, что МНЧ хорошо диспергируются, увеличивают магнитную восприимчивость и позволяют управлять их химическими свойствами. Были разобраны различные стратегии ко-валентной связи с флуоресцентными органическими красителями. Поверхностное покрытие и функционализмами НЧ оксида железа позволяет им прикрепляться к флуоресцентным молекулам и предотвращать тушение фотолюминесценции, что делает их перспективным материалом для неразрушающего магнитного контроля.
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