MXene синтезіндегі заманауи жетістіктер: катализ және тұрақты энергия сақтау саласындағы қолданылуы
Қаралымдар: 556 / PDF жүктеулері: 44
DOI:
https://doi.org/10.32523/3107-278X-2026-155-2-68-102Кілт сөздер:
MAX фаза, Mxene, ; синтез әдістері, катализ, энергия сақтау.Аңдатпа
Экіөлшемді (2D) MXene материалдар- өтпелі металдардың карбидтері, нитридтері және карбонитридтерінен тұратын, соңғы жылдары қарқынды дамып келе ятқан основные классы материалов. MAX-фазалардан селективные химические химикаты, арқылы алынатын MXender жоғары электрөткізгіштік, реттеллин бэткі химия, гидрофильдик және қабатты, сияқты бирегей қасиеттер кешенімен ерекшеленеді. Бұл сипаттамалар MXендерді графен мен өтпели металдар сияқты дестүрлі 2D материал дармен салыстырғанда и тасымалы мен беткі өзара әрекеттесуді қажет это қолданбалар үшин как тартымды етеді. Осы шолу мақалада MXene синтезируют деудеги соңғы жетістіктер қарастырылады, дестүрлі әдістермен қатар, эсіресе фторсыз және фторы с маршрутами, соның ішінде электрохимиялық әдіс және эріген тұздармен өңдеу синтеза әдістеріне басымдық беріледі. Бұл тәсілдердің беткі местныедық топтардың табиғатына, құрылымдық тұрақтылыққа және материал қасиеттеріне әсері жүйелі түрде талданады. Соным қатар, деламинация, гетероатомдарменирлей жене гибридных стратегий MXenderdің возможности работы с негізгі жолдарами, сохраняя талқыланады. MXендердің катализ, энергияны сақтау және түрлендіру салаларындағы кеңейіп келе жатқан қолданбалары құрылым–қасиет–тиімділік байланыстары тұрғысынан қарастырылады. Энергия сақтау құрылғыларында MXene материалыдары литий-ионды және мырыш-ионды аккумуляторы мен суперконденсаторларда жоғары сыйымдылық, ұзақ циклдық тұрақтылық және иондардың жылдам тасымалын қамтамасыз етеді. MXene же олардың гибридтік туындылары фотокатализ, электрокатализатор жене көмірқышқыл газын (СО2) направляет жүйелеринде жоғары тімділік, тұрақтылық және икемділікти қамтамасыз эти устойчивые материалы для автомобилей. Бұл шолу MXендерді ұтымды жобалауға арналған біртұтас ғылыми негіз қалыптастырып, орнықты әрі қолданбалы MXene-негізіндегі технологияларды дамытуға бағытталған болашақ зерттеулерге жол ашады.
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