TY - JOUR T1 - The applications of ceramics in 3D printing and additive manufacturing TT - Seramiklerin 3D baskı ve eklemeli imalat uygulamaları AU - Ulağ, Songül AU - Bozdag, Mehmet AU - Pilavcı, Esra AU - Baykara, Dilruba AU - Ayran, Melih Musa AU - Çelik, Süreyya Elif PY - 2025 DA - July Y2 - 2025 JF - ITU Journal of Metallurgy and Materials Engineering PB - İstanbul Teknik Üniversitesi WT - DergiPark SN - 3062-0406 SP - 1 EP - 11 VL - 2 IS - 2 LA - en AB - An accurate 3D imitating, rendering, and comprehension of ceramics were necessary for the fabrication and/or imitation of a durable microstructure for additive manufacturing (AM)/3D printed ceramics. The flowability of ceramic materials is another drawback of AM/3D printing. Most ceramic materials are obtained in the form of fine powders due to the usual production process, which exhibits poor flowability for AM. While AM is based on layer-by-layer fabrication of the entire structure, in the case of ceramics, electro-static disturbances and/or powder collection prevent sub-micrometer powders from spreading a narrow line and forming a layer. Although AM/3D printing of ceramics is difficult, producing ceramic-based materials and structures has significant applications in the fields of medicine, chemistry, aerospace, etc. KW - additive manufacturing KW - bioceramics KW - ceramics KW - 3D printing N2 - Seramiklerin doğru 3D basımı, işlenmesi ve anlaşılması, eklemeli üretim (AM)/3D baskılı seramikler için dayanıklı bir mikro yapının üretimi ve/veya taklidi için gerekliydi. Seramik malzemelerin akışkanlığı AM/3D baskının bir diğer dezavantajıdır. Çoğu seramik malzeme, AM için zayıf akışkanlık sergileyen olağan üretim süreci nedeniyle ince toz formunda elde edilir. 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