Frequency Responses of a Graphene Oxide Reinforced Concrete Structure
DOI:
https://doi.org/10.29019/eidos.v17i24.1382Keywords:
Frequency, vibration, GDQM, graphene oxide powders, stabilityAbstract
This paper presents a comprehensive investigation
on the vibrations of reinforced concrete structure by
graphene oxide powders (GOPs) using a polynomial
displacement field and the Generalized Differential
Quadrature Method (GDQM). The study focuses on
analyzing the dynamic behavior of the structure and
assessing the effects of three different distribution
patterns of GOPs on its vibrations. To accurately model
the deformation of the pressure vessel, a polynomial
displacement field is employed, taking into account
the complex geometrical and material properties
of the structure. The results highlight the significant
influence of the distribution pattern of GOPs on the
natural frequencies of the spherical concrete pressure
vessel. The analysis reveals that variations in the
weight fraction and arrangement of GOPs have a direct
impact on the stiffness and dynamic characteristics
of the structure. Specifically, increasing the weight
fraction of GOPs generally leads to higher natural
frequencies, indicating enhanced structural rigidity.
Moreover, the polynomial displacement field and
GDQM demonstrate their effectiveness in accurately
predicting the vibrations of the reinforced pressure
vessel. The combination of these numerical techniques
enables efficient and reliable analysis of the dynamic
response, allowing for optimization of the design and
performance of spherical concrete pressure vessels.
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Copyright (c) 2024 Mostafa Habibi, Mohammad Habibi, Emad Toghroli, Maryam Safa, Morteza Shariati
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