Traveling wave vibration analysis of dual-functional gradient metal-ceramic matrix rotating cylindrical shell reinforced by graphene sheets

Journal of Vibration and Shock ›› 2024, Vol. 43 ›› Issue (3) : 110-119.

XU Hongda, WANG Yu, JIAN Ze, LI Xuehui, YU Xiaoguang

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Abstract

Based on Halpin-Tsai micromechanical model and transfer matrix method, the traveling wave vibration characteristics of a rotating dual-functionally graded graphene platelet reinforced composite(DFG-GPLRC) cylindrical shell were investigated. The material properties of metal-ceramic functionally graded matrix and five types of distribution patterns of graphene platelet were analyzed. Based on the Love’s shell theory and transfer matrix method, the ordinary differential equations and the global transfer matrix relation for any cross section state vector were derived considering the influence of rotational speeds. The dynamic differential equations were solved based on clamped-free (cantilever) boundary condition mainly, which verified the rationality of the analytical method. The research shows that the low-order modes are dominated by the first axial half-wave number and the circumferential mode vibration for the free end, and the coriolis force caused by rotating speeds makes the traveling wave curve separate. The traveling wave frequencies increase with the increase of graphene material weight fraction, and the distribution patterns have little effect on the mode shape order. The volume fraction exponent of the matrix has some obvious effects on the vibration characteristics, while the number of graphene layers has little effect, and different excitation frequencies have different effects on resonance characteristics.

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metal-ceramic matrix / graphene platelet reinforced / rotating cylindrical shell / Halpin-Tsai model / transfer matrix method / travelling wave vibration

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XU Hongda, WANG Yu, JIAN Ze, LI Xuehui, YU Xiaoguang. Traveling wave vibration analysis of dual-functional gradient metal-ceramic matrix rotating cylindrical shell reinforced by graphene sheets[J]. Journal of Vibration and Shock, 2024, 43(3): 110-119

References

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