Використання технології 3D друку (CJP) для створення композитних трьохмірних виробів на основі вуглецевих наноструктур
Анотація
Показані умови синтезу вуглецевих нанотрубок (ВНТ), що отримані піролітичним методом та відпрацьован метод їх використання у 3D принтері технології CJP. Описаний процес підготовки продуктів синтезу для їх використання у 3D принтерах технологіях CJP, FDM, SLA, SLS. У дослідній роботі перераховані переваги композитного матеріалу (ВНТ - Al2O3) перед вихідним керамічним матеріалом.
Також було розглянуто методику створення композитних 3D виробів із витратних механічних сумішей (ВНТ/Al2O3), де розглянуто технологію їх приготування. Виміряна міцність на вигин кераміки, створеної методом 3D друку та армованої вуглецевими нанотрубками. Досліджено стійкість до механічного руйнування композитів, отриманих при використанні спіралеподібних і прямих ВНТ, та показано, що частини виробу спіралеподібних ВНТ при руйнуванні не розсипаються, а залишаються об'єднаними навіть під навантаженням.
Отримані композитні матеріали (БВНТ - Al2O3) порівнювались у вигляді таблиці з характеристик міцності різноманітної кераміки. Встановлені показники міцності для композиту на основі Al2O3 наповненого багатостінними вуглецевими нанотрубками (БВНТ) після його
3D-друку та спікання, із вмістом ВНТ 0, 20, 30, 50 % об. А також проведене порівняння показників міцності для композитних 3D-виробів, армованих спіральними або прямими ВНТ, де вміст ВНТ досягав від 0 до 50 % об.
Усі отримані матеріали (ВНТ, Al2O3 та композит на їх основі) були досліджені методом електронної мікроскопії.
Посилання
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