Laminated Object Manufacturing of Ceramic-Based Materials

被引:129
作者
Dermeik, Benjamin [1 ]
Travitzky, Nahum [1 ,2 ]
机构
[1] Univ Erlangen Nurnberg, Dept Mat Sci Glass & Ceram, Martensstr 5, D-91058 Erlangen, Germany
[2] Tomsk Polytech Univ, Natl Res Div Mat Sci, Lenin Ave 30, Tomsk 634050, Russia
关键词
additive manufacturing; ceramic matrix composites; ceramic-based materials; laminated object manufacturing; paper-derived ceramics; PRECERAMIC-PAPER; MECHANICAL-PROPERTIES; COMBUSTION SYNTHESIS; MATRIX COMPOSITES; SILICON-NITRIDE; LOM PROCESS; AL2O3; PHASE; MICROSTRUCTURE; FABRICATION;
D O I
10.1002/adem.202000256
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Since their inception, additive manufacturing (AM) techniques have been the go-to methods for obtaining highly complex-shaped rapid prototypes (RPs) and specialized parts, which were produced in small lot sizes. The AM technique of laminated object manufacturing (LOM) is an immensely convenient and cost-effective method for quickly producing millimeter-sized to meter-sized parts, while incorporating micrometer-sized constructive features. LOM machines offer an open work space, within which nontoxic and highly filled sheet materials can be processed at a high production velocity. The unique property profile of ceramic-based materials from LOM may be indispensable for applications calling for materials that unite high temperature resistance, mechanical strength, and light weight. Optionally, local material functionalization may engender the electrical conductivity, chemical stability, ferroelectricity, radiation shielding, or filter membrane stability of a limited portion of the material. Herein, a detailed evaluation of the applicability of LOM in the near net shaping ceramic-based materials is presented. Optional technical adjustments for the LOM process and extensions of the LOM machine configuration can improve the economic feasibility its operation. Previously successful LOM-printed ceramic-based materials are showcased within a comprehensive overview on the state of the art and potential novel composite materials are presented.
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页数:24
相关论文
共 153 条
[1]  
Abel J., 2019, JOVE-J VIS EXP, V143, pe57693
[2]   Quantification of surface roughness of parts processed by laminated object manufacturing [J].
Ahn, Daekeon ;
Kweon, Jin-Hwe ;
Choi, Jinho ;
Lee, Seokhee .
JOURNAL OF MATERIALS PROCESSING TECHNOLOGY, 2012, 212 (02) :339-346
[3]   Nanoscale hybrid manufacturing process by nano particle deposition system (NPDS) and focused ion beam (FIB) [J].
Ahn, S. H. ;
Chun, D. M. ;
Kim, C. S. .
CIRP ANNALS-MANUFACTURING TECHNOLOGY, 2011, 60 (01) :583-586
[4]   Multifunctional fiber reinforced polymer composites using carbon and boron nitride nanotubes [J].
Ashrafi, Behnam ;
Jakubinek, Michael B. ;
Martinez-Rubi, Yadienka ;
Rahmat, Meysam ;
Djokic, Drazen ;
Laqua, Kurtis ;
Park, Daesun ;
Kim, Keun-Su ;
Simard, Benoit ;
Yousefpour, Ali .
ACTA ASTRONAUTICA, 2017, 141 :57-63
[5]   3D-Printed Microfluidics [J].
Au, Anthony K. ;
Huynh, Wilson ;
Horowitz, Lisa F. ;
Folch, Albert .
ANGEWANDTE CHEMIE-INTERNATIONAL EDITION, 2016, 55 (12) :3862-3881
[6]  
BAESE C, 1904, Patent No. 774549
[7]   Elastic and Mechanical Properties of the MAX Phases [J].
Barsoum, Michel W. ;
Radovic, Miladin .
ANNUAL REVIEW OF MATERIALS RESEARCH, VOL 41, 2011, 41 :195-227
[8]   Dislocations, kink bands, and room-temperature plasticity of Ti3SiC2 [J].
Barsoum, MW ;
Farber, L ;
El-Raghy, T .
METALLURGICAL AND MATERIALS TRANSACTIONS A-PHYSICAL METALLURGY AND MATERIALS SCIENCE, 1999, 30 (07) :1727-1738
[9]  
Beaman J. J., 2001, P 12 SOL FREEF FABR, P584
[10]   A robotic cell for performing sheet lamination-based additive manufacturing [J].
Bhatt, Prahar M. ;
Kabir, Ariyan M. ;
Peralta, Max ;
Bruck, Hugh A. ;
Gupta, Satyandra K. .
ADDITIVE MANUFACTURING, 2019, 27 :278-289