Pallet racking systems are a mainstay of contemporary logistics and warehousing operations, offering effective storage solutions to a variety of global sectors. The rotational stiffness of the beam-to-upright connection of the pallet racking system is very important for the design of any finite element program. This paper introduces a mechanical model, employing the component method, aimed at predicting the initial rotational stiffness of beam-to-upright connections within cold-formed steel storage racks. An experimental investigation of the behavior of beam-to-column connections in a steel pallet racking system is conducted, and the results are used to verify the mechanical model. The findings indicate that there is a satisfactory agreement between the experimental results and the initial rotational stiffness values derived from the mechanical model.
Yehia, M., Gawwan, S., & Yehia, M. (2024). A Mechanical Model to Predict the Initial Stiffness of The Beam-to-Upright Connection in A Steel Pallet Racking System. Engineering Research Journal, 183(3), 152-164. doi: 10.21608/erj.2024.377295
MLA
Mohamed Yehia; Sameh Gawwan; Mohamed. M Yehia. "A Mechanical Model to Predict the Initial Stiffness of The Beam-to-Upright Connection in A Steel Pallet Racking System". Engineering Research Journal, 183, 3, 2024, 152-164. doi: 10.21608/erj.2024.377295
HARVARD
Yehia, M., Gawwan, S., Yehia, M. (2024). 'A Mechanical Model to Predict the Initial Stiffness of The Beam-to-Upright Connection in A Steel Pallet Racking System', Engineering Research Journal, 183(3), pp. 152-164. doi: 10.21608/erj.2024.377295
VANCOUVER
Yehia, M., Gawwan, S., Yehia, M. A Mechanical Model to Predict the Initial Stiffness of The Beam-to-Upright Connection in A Steel Pallet Racking System. Engineering Research Journal, 2024; 183(3): 152-164. doi: 10.21608/erj.2024.377295