Highly deformable thin-walled structures have great potential in new technological applications, as it is demonstrated by the great
interest of researchers on this topic. Because of their capability of withstanding large deformations, these systems are used for
innovative applications in biomechanics, aerodynamics, soft robotics, and electronics. In addition, thin-walled systems such as
membranes and tubes are used in nanoengineering to produce nano devices.
Due to their lightness and versatility, they are of primary importance in civil engineering, especially regarding innovative and green
construction systems. Membrane engineering covers crucial roles in water treatment, energy production, and raw materials
depletion, replacing conventional techniques and providing reliable options for sustainable growth.
Despite the great attention that thin-walled structures received from the scientific community, there is still a lack of accurate
mechanical models. Most applications in new technologies require a comprehensive knowledge of their response under very large
strains. This topic is still open and needs further research. Therefore, the goal of the present research is to develop analytical
solutions and numerical models with a fully nonlinear approach that properly describes the response of such systems.
The project is organized in 4 work packages (WP). The first aims at developing analytical solutions, which are of crucial importance
from both scientific and professional points of view. The second and third WPs are focused on numerical and experimental investigations, respectively. The numerical models are necessary to analyze complex problems for which analytical solutions cannot
be derived, while the experimental activity has two main purposes: (1) characterization of the materials considered and (2)
validation of the models proposed. Lastly, the fourth WP regards the dissemination of the research findings