Structural modelling and design

Our research focuses on the computational structural modelling and design of multi-layered elastically bent and mechanically laminated structures. The structural behavior of such systems is highly non-linear, making their analysis and optimization complex. As the number of layers and interacting elements increases, accurately predicting their structural performance becomes increasingly challenging, necessitating advanced computational approaches.

Our research aims to develop robust computational frameworks for the precise modelling and structural design of mechanically laminated elastically bent structures. Through numerical analysis and computational modelling backed with physical prototyping and testing, we explore methods for accurately predicting their load-bearing capacities. These tools not only enhance the reliability of the structural assessments but also inform the design process, enabling greater control over structural performance.

  
_{Figure: Structural test (left and middle) and numerical analysis (right) of an elastically bent and mechanically laminated compound beam.}

Furthermore, we investigate computational strategies for optimizing fabrication and assembly processes, ensuring that digital models translate effectively into real-world applications. By integrating structural simulations with digital fabrication workflows, we seek to streamline the construction of complex elastically bent structures and expand their applicability in large-scale architectural and engineering contexts.

Through this research, we contribute to the advancement of computational structural engineering, enabling a more precise and efficient design approach for multi-layered elastically bent systems.