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Temperature Effect on the Modal Frequencies of Aluminum Honeycomb Plate

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Abstract:

The aim of this paper is to perform a study on how the elevated temperature and gradient of temperature affect the natural frequencies of aluminum honeycomb plate. This study is carried out for temperature range between 200K and 800K, and gradient temperature (ΔT) across the thickness direction of the plate between [0-500K]. Different honeycomb plate geometries have been selected for the analysis, by changing the core thickness, skins thickness and cell size. The obtained results show that the effect of the temperature is noticeable. At temperature 800K, the natural frequencies decrease by 16.1% in comparison to their values at ambient temperature (300K). That means, high temperature makes the material suffers from weak rigidity, which furthermore contribute to high decrease of all the frequencies. In addition, investigations carried out in this work relate to the modal analysis of the honeycomb plate, under various gradients of temperature across the core of the plate. The obtained results show that the gradient of temperature has an effect on the modes of vibration of the honeycomb plate. This effect becomes significant when the gradient of temperature is very high. At ΔT equal 500K, the natural vibration modes decrease by 9.5% in comparison to the case where no gradient of temperature (ΔT = 0K) is applied between the two faces of the plate. Keywords: honeycomb panel; aluminum; natural frequency; finite element method; temperature.

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Advanced Materials Research, Vol. 1159 View Preview

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Periodical:

Advanced Materials Research (Volume 1159)

Pages:

27-41

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.1159.27

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Online since:

September 2020

Authors:

Redha Amri*

Keywords:

Aluminum, Finite Element Method, Honeycomb Panel, Natural Frequency, Temperature

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* - Corresponding Author

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