Modeling the accumulation of damages and the failure of ceramic composites Al₂O₃ - ZrO₂, obtained by additive technologies, under high-speed loading | Vestnik Tomskogo gosudarstvennogo universiteta. Matematika i mekhanika – Tomsk State University Journal of Mathematics and Mechanics. 2021. № 72. DOI: 10.17223/19988621/72/12

Modeling the accumulation of damages and the failure of ceramic composites Al₂O₃ - ZrO₂, obtained by additive technologies, under high-speed loading

Functional ceramic composite materials are widely used in industry due to their high strength, hardness, high operating temperature, and chemical inertness. Among the most famous types of functional ceramics are the ceramic composites based on the Al₂O₃-20% ZrO₂ system. In this work, the effect of the loading rate on the crack resistance is studied as well as the effect of the crack resistance of ceramic composites Al₂O₃-20% t-ZrO₂ with a mass content of submicron t-ZrO₂ particles on the high-speed compression of model specimens in shock waves and on the high-speed tension in the region of interaction of unloading waves. It is established that nonlinear effects of the mechanical behavior of ceramic composites ZrO₂-Al₂O₃ with a transformation-hardened matrix obtained by additive technologies are manifested at shock loading amplitudes close to or exceeding the Hugoniot elastic limit. Nonlinear effects under intense dynamic impacts on the considered composites are associated with the processes of self-organization of deformation regimes at a mesoscopic level, as well as with the occurrence of martensitic phase transformations in the matrix volumes, which are adjacent to strengthening particles. The modeling approach presented in this work can be used to determine the dynamic characteristics of ceramic composites up to shock loads of 1000 m/s.

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Keywords

ceramic materials, structure of composite materials, additive technology, dynamic loading, transformation hardening

Authors

Name	Organization	E-mail
Promakhov Vladimir V.	Tomsk State University	vvpromakhov@mail.ru
Korobenkov Maksim V.	Tomsk State University	schulznikita97@gmail.com
Schultz Nikita A.	Tomsk State University	schulznikita97@gmail.com
Zhukov Aleksandr S.	Tomsk State University	schulznikita97@gmail.com
Olisov Andrey V.	Tomsk State University	schulznikita97@gmail.com
Bakhmat Vladislav R.	Tomsk State University	schulznikita97@gmail.com
Dronov Filipp Yu.	Tomsk State University	schulznikita97@gmail.com
Myalkovskiy Igor’S.	Tomsk State University	schulznikita97@gmail.com

Всего: 8

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