A platform for research: civil engineering, architecture and urbanism
Experimental and numerical studies on the deployment process of self-locking cuboid foldable structural units
Structural units are the basic components of self-locking foldable grid structures, and their spatial configurations have a vital influence on the structural performance of the overall grid. Research on the deployment process of structural units can help effectively control their stress level and achieve a rational self-locking capability for the units. Therefore, this article describes experimental and modeling studies on the deployment process of structural units and provides a reference for the establishment of numerical models and the design of structural units. The experimental results revealed that the self-locking capability of a structural unit is mainly determined by the bending moments of its members in the planes of the scissor-like elements. The method for adjusting the locations of the pivot endpoints at the radial bars is effective for improving the self-locking capacity, but the degree of adjustment must be strictly controlled to prevent large rotation at the inner lower hub joint. In addition, the feasibility of the modeling method was verified by comparing the experimental curves with the curves obtained by theoretical models.
Experimental and numerical studies on the deployment process of self-locking cuboid foldable structural units
Structural units are the basic components of self-locking foldable grid structures, and their spatial configurations have a vital influence on the structural performance of the overall grid. Research on the deployment process of structural units can help effectively control their stress level and achieve a rational self-locking capability for the units. Therefore, this article describes experimental and modeling studies on the deployment process of structural units and provides a reference for the establishment of numerical models and the design of structural units. The experimental results revealed that the self-locking capability of a structural unit is mainly determined by the bending moments of its members in the planes of the scissor-like elements. The method for adjusting the locations of the pivot endpoints at the radial bars is effective for improving the self-locking capacity, but the degree of adjustment must be strictly controlled to prevent large rotation at the inner lower hub joint. In addition, the feasibility of the modeling method was verified by comparing the experimental curves with the curves obtained by theoretical models.
Experimental and numerical studies on the deployment process of self-locking cuboid foldable structural units
Zhao, Zhanwei (author) / Hu, Weibing (author) / Yu, Lei (author)
Advances in Structural Engineering ; 23 ; 3496-3508
2020-12-01
13 pages
Article (Journal)
Electronic Resource
English
Geometric Parameter Design of Self-Locking Foldable Latticed Shells in Deployment Process
British Library Conference Proceedings | 2012
|