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    • New Zealand Society for Earthquake Engineering
    • Proceedings of the 2023 New Zealand Society for Earthquake Engineering Annual Technical Conference
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    Finite Element Convergence Study of the Asymmetric Friction Connection (AFC) in the Optimised Sliding Hinge Joint (OSHJ)

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    Date
    2023-04-19
    Authors
    Alizadeh, Fatemeh
    Ramhormozian, Shahab
    Clifton, Charles
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    Abstract
    The Optimised Sliding Hinge Joint (OSHJ) is a cost-effective, low damage seismic resisting beam-column connection developed for Moment Resisting Steel Framed (MRSF) buildings. The OSHJ is the optimised version of the traditional Sliding Hinge Joint. The Asymmetric Friction Connections (AFCs) with partially deflected Belleville Springs (BeSs), named as Optimised Asymmetric Friction Connections (OAFCs) in this paper, are the OSHJ's friction sliding energy dissipating components, which also act as fuses to limit the seismic induced internal actions in the beams and columns. The OAFCs may be installed at the beam bottom flange and web bottom bolts level in the OSHJ. The OAFCs bolts are tightened in the elastic range and remain effectively elastic during seismic induced sliding under severe earthquake demands, retaining most of their installed bolt tension after significant sliding. This paper provides a brief background on the OSHJ developments, followed by presenting the Finite Element Model (FEM) of the OAFC using ABAQUS software, including explanation of the FEM’s geometrical, material, and boundary condition characteristics. Finally, a convergence (aka sensitivity) study is undertaken, and the optimum mesh size and geometry as well as element type are identified, to be used in the ongoing extensive finite element analysis of these systems.
    URI
    https://repo.nzsee.org.nz/handle/nzsee/2578
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    • Proceedings of the 2023 New Zealand Society for Earthquake Engineering Annual Technical Conference

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