Toughening Mechanisms in Nanolayered MAX Phase Ceramics—A Review
Advanced engineering and functional ceramics are sensitive to damage cracks, which delay the wide applications of these materials in various fields. Ceramic composites with enhanced fracture toughness may trigger a paradigm for design and application of the brittle components. This paper reviews the...
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doaj-a383001be1b944169152fc334c0e1a6a2020-11-24T22:51:09ZengMDPI AGMaterials1996-19442017-03-0110436610.3390/ma10040366ma10040366Toughening Mechanisms in Nanolayered MAX Phase Ceramics—A ReviewXinhua Chen0Guoping Bei1School of Mechanical Electronic and Automobile Engineering, Beijing University of Civil Engineering and Architecture, Beijing 100044, ChinaDepartment of Materials Science and Engineering, 3ME, Delft University of Technology, Mekelweg 2, 2628CD Delft, The NetherlandsAdvanced engineering and functional ceramics are sensitive to damage cracks, which delay the wide applications of these materials in various fields. Ceramic composites with enhanced fracture toughness may trigger a paradigm for design and application of the brittle components. This paper reviews the toughening mechanisms for the nanolayered MAX phase ceramics. The main toughening mechanisms for these ternary compounds were controlled by particle toughening, phase-transformation toughening and fiber-reinforced toughening, as well as texture toughening. Based on the various toughening mechanisms in MAX phase, models of SiC particles and fibers toughening Ti3SiC2 are established to predict and explain the toughening mechanisms. The modeling work provides insights and guidance to fabricate MAX phase-related composites with optimized microstructures in order to achieve the desired mechanical properties required for harsh application environments.http://www.mdpi.com/1996-1944/10/4/366crackstoughening mechanismMAX phasefinite element model |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Xinhua Chen Guoping Bei |
spellingShingle |
Xinhua Chen Guoping Bei Toughening Mechanisms in Nanolayered MAX Phase Ceramics—A Review Materials cracks toughening mechanism MAX phase finite element model |
author_facet |
Xinhua Chen Guoping Bei |
author_sort |
Xinhua Chen |
title |
Toughening Mechanisms in Nanolayered MAX Phase Ceramics—A Review |
title_short |
Toughening Mechanisms in Nanolayered MAX Phase Ceramics—A Review |
title_full |
Toughening Mechanisms in Nanolayered MAX Phase Ceramics—A Review |
title_fullStr |
Toughening Mechanisms in Nanolayered MAX Phase Ceramics—A Review |
title_full_unstemmed |
Toughening Mechanisms in Nanolayered MAX Phase Ceramics—A Review |
title_sort |
toughening mechanisms in nanolayered max phase ceramics—a review |
publisher |
MDPI AG |
series |
Materials |
issn |
1996-1944 |
publishDate |
2017-03-01 |
description |
Advanced engineering and functional ceramics are sensitive to damage cracks, which delay the wide applications of these materials in various fields. Ceramic composites with enhanced fracture toughness may trigger a paradigm for design and application of the brittle components. This paper reviews the toughening mechanisms for the nanolayered MAX phase ceramics. The main toughening mechanisms for these ternary compounds were controlled by particle toughening, phase-transformation toughening and fiber-reinforced toughening, as well as texture toughening. Based on the various toughening mechanisms in MAX phase, models of SiC particles and fibers toughening Ti3SiC2 are established to predict and explain the toughening mechanisms. The modeling work provides insights and guidance to fabricate MAX phase-related composites with optimized microstructures in order to achieve the desired mechanical properties required for harsh application environments. |
topic |
cracks toughening mechanism MAX phase finite element model |
url |
http://www.mdpi.com/1996-1944/10/4/366 |
work_keys_str_mv |
AT xinhuachen tougheningmechanismsinnanolayeredmaxphaseceramicsareview AT guopingbei tougheningmechanismsinnanolayeredmaxphaseceramicsareview |
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1725671068376498176 |