journal article·2025-02Open access

Oxidation behavior and subsequent mechanical properties of SiC/BN/SiBCN composite after exposure to steam at high temperature

Zhongmin Li, Zhaohe Gao, Xun Zhang, Yanwen Liu, Philip J. Withers, Ping Xiao

Corrosion Science· Volume 243

Abstract

Despite its importance when considering jet engine environments, the behavior of ceramic matrix composites following high temperature exposure in steam has received much less attention than in air. The present study investigates the oxidation behavior and the corresponding mechanical properties of a SiC/BN/SiBCN composite after exposure to steam at 950°C, 1050°C, 1200°C and 1350°C for 30 h. The SiBCN matrix shows crack-filling behavior, whereby microcracks are filled with oxide hindering internal oxidation of the composite. The oxide layers formed on both the SiC fiber and the SiBCN matrix exhibit a double layer structure, with the outer layer being more porous. With increasing temperature, the BN interphase is consumed and replaced by borosilicate glass that bonds the fiber and matrix. This alters the debonding location from the fiber/BN interface to the BN/SiBCN matrix interface . Three-point bending test shows the composite retains good flexural strength and a tough failure response even after exposure to steam at 1350°C. Single fibre push-out test shows a slight increase in interfacial shear strength with increasing thermal exposure .
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Research context

OpenAlex topics: Advanced ceramic materials synthesis · Advanced materials and composites · MXene and MAX Phase Materials

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