Transforming a Corner of a Light-Frame Wood Structure to a Set of Nonlinear Springs
Keywords:
Finite element, connections, light-frame model, light-frame constructionAbstract
The computational efficiency of a full-structure model for a light-frame building is enhanced by replacing the continuum of the detailed connections with rotational and translational nonlinear springs that are energetically equivalent between two bounds. This study examines the transformation from the physical exterior-wall-to-exterior-wall connection (a corner) of a light-frame wood structure, first, to a two-dimensional finite-element model and, then, to a set of nonlinear springs. Typical light-frame details are used as the starting point, and the product is the characteristic moment-rotation and load-displacement relationships for a 24-inch segment of the corner.References
American Society for Testing and Materials (ASTM). 1989. Standard methods of testing structural panels in flexure. D3043-87. Pages 417-427 in Annual book of standards, vol. 04.09. ASTM, Philadelphia, PA.nAmerican Society for Testing and Materials (ASTM). 1990. Standard test methods for physical testing of gypsum board products and gypsum lath. C473-87a. Pages 251-261 in Annual book of standards, vol. 04.01. ASTM, Philadelphia, PA.nBodig, J., and B. A. Jayne. 1982. Mechanics of wood and wood composites. Van Nostrand Reinhold Co., New York, NY. 712 pp.nDelsalvo, G. J., and R. W. Gorman. 1989. ANSYS engineering system user's manual, Version 4.4, vol. 1. Swanson Analysis Systems, Houston, PA.nGroom, K. M. 1992. Nonlinear finite-element modeling of intercomponent connections in light-frame wood structures. M.S. thesis, Oregon State University, Corvallis, OR. 167 pp.nJenkins, J. L., A. Polensek, and K. W. Bastendorff. 1979. Stiffness of nailed wall joints under short and long term lateral loads. Wood Sci. 11(3):145-154.nKasal, B. 1992. A nonlinear three-dimensional finiteelement model of a light-frame wood structure. Ph.D. thesis, Oregon State University, Corvallis, OR. 316 pp.nPhillips, T. J. 1990. Load sharing characteristics of three-dimensional wood diaphragms. M.S. thesis, Washington State University, Pullman, WA. 236 pp.nPolensek, A., and K. M. Bastendorff. 1987. Damping in nailed joints of light-frame wood buildings. Wood Fiber Sci. 19(2):110-125.nPolensek, A., and B. D. Schimel. 1986. Rotational restraint of wood-stud wall supports. J. Struct. Eng. 112(6):1247-1262.n
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