Yang Lyu; Fei Li; Chunlin Wang; Yuhao Fang; Wenzheng Zhang; Mingyi Tan; Ping Hu; Yuan Cheng; Wenbo Han; Xinghong Zhang

doi:10.1016/j.exm.2026.100029

Extreme Materials ›› 2026 DOI: 10.1016/j.exm.2026.100029

Yang Lyu ^a ,
Fei Li ^a ,
Chunlin Wang ^b ,
Yuhao Fang ^b ,
Wenzheng Zhang ^a ,
Mingyi Tan ^b ,
Ping Hu ^a^,^b ,
Yuan Cheng ^a^,^b ,
Wenbo Han ^a^,^b ,
Xinghong Zhang ^a^,^b

作者信息 +

Efficient fabrication of light C/C-SiHfCB composites with excellent thermal shock resistance and high temperature ablation resistance above 2000℃

Yang Lyu ^a ,
Fei Li ^a ,
Chunlin Wang ^b ,
Yuhao Fang ^b ,
Wenzheng Zhang ^a ,
Mingyi Tan ^b ,
Ping Hu ^a^,^b ,
Yuan Cheng ^a^,^b ,
Wenbo Han ^a^,^b ,
Xinghong Zhang ^a^,^b

Author information +

文章历史 +

Abstract

To meet the stringent demands for toughening and ablation resistance in high-speed aircraft components, C/C-SiHfCB composites were fabricated by introducing a novel liquid SiHfCB precursor into a porous C/C matrix via high-pressure precursor infiltration and pyrolysis. This approach yielded an integrated three-dimensional continuous ceramic phase tightly bonded to the matrix. The composite achieved a flexural strength of 237±42 MPa with non-brittle fracture, a critical thermal shock temperature difference of 912℃. During oxyacetylene flame tests, extremely low linear ablation rates of 5.7×10^-4mm/s and 15.6×10^-4mm/s were recorded at 2000℃ and 2150℃, respectively. An effective oxygen diffusion barrier consisting of an HfO₂ skeleton with SiO₂-filled pores was formed. This study offers a viable strategy for the synergistic optimization of mechanical and ablation properties.

Key words

C/C composites / Ultra-high temperature ceramics precursor / Thermal shock resistance / Ablation resistance

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Yang Lyu, Fei Li, Chunlin Wang, 等. [J]. Extreme Materials. 2026 https://doi.org/10.1016/j.exm.2026.100029

Yang Lyu, Fei Li, Chunlin Wang, et al. Efficient fabrication of light C/C-SiHfCB composites with excellent thermal shock resistance and high temperature ablation resistance above 2000℃[J]. Extreme Materials. 2026 https://doi.org/10.1016/j.exm.2026.100029

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脚注

The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.