Створення 3D-продукції з використанням вуглецевих наноструктур і технологій 3D-друку (FDM, CJP, SLA, SLS)
Анотація
Розглядаються методи одержання вуглецевих наноструктур (ВНС), а також їх використання для створення 3D-продуктів за допомогою технологій 3D-друку (FDM, CJP, SLA, SLS). Розроблений процес виготовлення витратних матеріалів технологій 3D-друку (FDM, CJP, SLA, SLS) для створення нових композитних 3D-виробів на основі вуглецевих наноструктур. Детально проаналізовані методи синтезу ВНС, які є найбільш продуктивними та гарантують отримання цільових ВНС.
Проведено аналіз існуючих технологій 3D-друку з використанням ВНС, розроблено схему повного циклу, від перетворення графіту або іншого вуглецевмісного матеріалу при синтезі (різними методами) ВНС до створення 3D-виробів, які містять ВНС. Також розробленний процес створення композитних бухт для 3D-друку (FDM) з нанокомпозитних ниток на основі твердого полімеру, що готується у спеціальному змішувачі. Охарактеризовано процес підготовки витратного матеріалу для друку об'ємних 3D-виробів за технологіями 3D-друку (FDM, CJP, SLA, SLS) з використанням ВНС. Розглянуті витратні матеріали для 3D-виробів за технологією FDM. Проведено аналіз композитних 3D-виробів, отриманих технологіями 3D-друку FDM та CJP.
Розглянуто також три найбільш продуктивні методи синтезу ВНС: плазмохімічні у газових та рідких фазах, а також піролітичний метод. Методи синтезу гарантують отримання ВНС, та забезпечують якість цільових нанопродуктів. Розглянуті різні типи ВНС, включаючи розчинні (фуллерени та фуллереноподібні структури) та нерозчинні наноструктури (графени, вуглецеві нанотрубки та нановолокна, нанокомпозити тощо.).
Посилання
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