Sintering simulations for ceramic multilayer laminates with paper-derived ceramics: From sintering dilatometry to anisotropic sintering simulation

Manière C, Lecourt J, Dermeik B, Schmiedeke S, Travitzky N (2024)


Publication Type: Journal article

Publication year: 2024

Journal

DOI: 10.1016/j.jeurceramsoc.2024.03.031

Abstract

Alumina-based multilayer laminates with layers of varied porosities and ceramic fiber reinforcements, which can be achieved by including paper-derived ceramic layers, are interesting candidates for chemically stable and thermal shock resistant materials. In order to investigate the complex sintering behavior of these laminates, the sintering of each alumina layer contained within a laminate, each one with its individual sintering anisotropy and sintering shrinkage, has to be considered separately. For this purpose, sintering curves are determined by dilatometry measurements, serving a consecutive examination by an analytical model. Modeling parameters specific to each layer, are applied in finite-element-type sintering simulations for symmetrical multilayer laminates. Differences in the sintering shrinkages may cause internal stresses at layer interfaces and, in turn, may influence the thermal and mechanical properties of multilayer laminates after sintering. Accordingly, the prediction of developing internal stresses within alumina-based multilayer laminates by the presented sintering simulations is a key aspect of this study.

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APA:

Manière, C., Lecourt, J., Dermeik, B., Schmiedeke, S., & Travitzky, N. (2024). Sintering simulations for ceramic multilayer laminates with paper-derived ceramics: From sintering dilatometry to anisotropic sintering simulation. Journal of the European Ceramic Society. https://doi.org/10.1016/j.jeurceramsoc.2024.03.031

MLA:

Manière, Charles, et al. "Sintering simulations for ceramic multilayer laminates with paper-derived ceramics: From sintering dilatometry to anisotropic sintering simulation." Journal of the European Ceramic Society (2024).

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