Computer simulation for parametric study of concrete system: Introducing novel reinforcement for concrete construction materials

Abstract Concrete is a primary construction material in the building industry. Formwork is crucial in facilitating the implementation of geometric designs and enhancing the structural integrity of concrete components. Additionally, it represents a significant expense in the building of concrete structures. The use of formwork has a lengthy historical background, with several formwork systems being employed in various projects. When designing and choosing a formwork system, it is important to consider many needs, including safety, cost, structural geometry, construction time, and surface quality. This article introduces a computer simulation for conducting a parametric analysis of concrete systems using a new reinforcing method for concrete building materials. To achieve this objective, the current relevant concrete material is simulated using higher-order shear deformation theory, the minimal potential energy principle, and an analytical solver. Halpin–Tsai homogenization technique and the role of the mixture are used to predict the mechanical properties of the presented innovative reinforcement. The mathematical formulation of a Haber–Schaim foundation constructed from auxetic material inside the Cartesian coordinate system is expressed. The results show that in the highest velocity, the influence of the graphene oxide powders (GOP) distribution pattern on the acceleration of the system than other values of velocity. Also, as an applicable suggestion, by a less change in the amplitude of the structure with higher values of GOP weight fraction, the velocity of the structure changes drastically, While, this trend for lower values of GOP weight fraction has a noticeable change. Finally, some suggestions for improving the dynamic stability of this kind of innovative concrete structure will be given in the results section for civil and mechanical engineers.