This thesis deals with the development of a modular stainless steel swimming pool. The
main objective of the project is to introduce a new method of manufacturing and assembling
stainless steel swimming pools based on a modular structural design with standardized
elements. Such a design enables the adjustment of the final pool dimensions without the need
to reorganize the production process, while simultaneously contributing to the reduction of
manufacturing, transportation, and installation costs.
The thesis presents the main structural solutions developed to overcome the mechanical and
technological challenges, as well as the entire structural development process. A three
dimensional parametric model of the swimming pool was created, serving as the basis for
further analyses and optimization.
Analytical calculations of hydrostatic loads, deformations, and bolted joint loads were
carried out to determine the mechanical requirements of the structure. The mechanical
adequacy of the developed structure was then verified using the finite element method,
where deformations and equivalent stresses under all expected operating loads were
analyzed. Based on the results of the numerical analyses, the structure was further optimized
with the aim of improving its stiffness and reducing material consumption.
The results confirm the feasibility of the proposed structural design and support its further
development. They reveal the weaknesses and shortcomings of the current design and
determine the available safety margin for ensuring product safety, reducing material
consumption, and further optimizing the overall design.
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