Reliability-based Capacity Rating of Wood Shear Walls under Seismic Loading

Authors

  • Kaura, J. M. Department of Civil Engineering, Ahmadu Bello University, Zaria, Nigeria
  • Afolayan, J. O. Department of Civil Engineering, Federal University of Technology, Akure, Nigeria

Keywords:

Wood shearwall, capacity rating, Action Reduction Factor

Abstract

The purpose of this study was generate the reliability-based seismic capacity rating of wood shear walls. The rating is based on the seismic design provision of the 1994 Uniform Building Code. The shear wall resistance was established based on the provision of Eurocode 5, (2004). Uncertainties in the design variables were fully accommodated. It was established that, variability in the ground motion has very serious effect on the safety of wood frame structures under seismic loading. A review of seismic design code to fully accommodate uncertainties through probabilistic design is advocated in this study. Hence, the use of the developed design chart will ensure uniform reliability in seismic capacity rating of wood shear wall.

References

Afolayan J. O. (1992). Reliability-Based Analysis and Design. Departmental Seminar, Department of Civil Engineering, Ahmadu Bello University, Zaria

Ang A. H. and Tang T. H. (1975). Probability Concept in Engineering Planning and Design (Vol. 1). New York: John Wiley and Sons.

Blass H. J., Aune P., Choo B. S., Golacher R., Griffins D. R. and Hilson B. O. (1995). Timber Engineering STEP 1 (First Edition). The Netherlands: Centrum Hout.

Blass H. J., Aune P., Choo B. S., Golacher R., Griffins D. R. and Hilson B. O. (2008). Timber Engineering STEP 2 (First Edition). The Netherlands: Centrum Hout.

Breyer E. D. (1988). Design of Wood Structures (2nd Ed.). New York: McGraw Hill Book Company.

Ditlevsen, O. and Madsen, H. O. (2005) Structural Reliability Methods. internet edition

Dowrick D. J. (1977). Earthquake Resistant Design. London: John Wiley and Sons.

Eurocode 5-Design of Timber Structures (2004). European standard ENV 1005-1-1: General Standardisation. Belgium: Brussels, .

Folz B. and Filiatrault A. (2001). Cyclic Analysis of Wood Shear Walls. Journal of Structural Engineering, 127(4), 433-441

Folz B. and Filiatrault A. (2002). Performance Based Seismic Design of Wood Framed Buildings. Journal of Structural Division. ASCE. Vol. 128, 39-47.

Gollwitzer S., Abdo T. and Rackwitz R. (1988). First Order Reliability Method: FORM Software. User Manual. Munich.

Lindt J. W. and Huart J. N. (2004). Wood Shear Wall Reliability Inherent in AF and PA/ASCE 16. Structures 2001, 1-7.

Lindt J. W. and Mathew A. W. (2003). Development and Application of Wood Shear Wall Reliability Model. Journal of Structural Engineering, 129(3), 405-413.

Lagorio J. L. (1990). An Architect Guide to Non-structure Seismic Hazard. New York: John Willey and Sons, Inc.

Lucas E., Olorunmisola A. and Adewole N. (2006). Preliminary Evaluation of Guava (Psidium Guajava L.) Tree Branches for Truss Fabrication in Nigeria. Agricultural Engineering International: CIGR E-journal, VIII.

Melchers R. E. (1987). Structural Reliability Analysis and Prediction. New York: John Willey and Sons.

Ming He (1999). Cyclic Performance of Perforated Wood Shear Walls with Oversize OSB Panels. Journal of Structural Engineering, 125(10), 10-18.

Rosowsky D. V. and Ellingwood R. B. (2002). Performance Based Engineering of Wood Frame Housing: Fragility Analysis Methodology. Journal of Structural Division. ASCE. 128. 32- 38.

Rosowsky D. V. (2002). Reliability Based Design of Wood Shear Walls. Journal of Structural Division. ASCE. 128, 1439-14441.

Riley M. A. and Sadek F. (2003). Experimental Testing of Roof to Wall Connections In Wood Frame Housing. Building and Fire Research Laboratory, National Institute of Standards and Technology. Gathersburg, MD 20809

Ryder G. H. (1969). Strength of materials. London: Macmillan

Seile E., Filiatrault A. and Uang C. M. (1999). Pro. Invitational Workshop on Seismic Testing, Analysis and Design of Wood Frame Construction. CUREE Publication No. W-01, CUREECaltech Woodframe Project Richmond Calf.

Smith I. and Foliente G. (2002). Load and Resistance Factor Design of Timber Joints: International Practice and Future Direction. Journal of the Structural Division, ASCE. 128, 48-59.

Stehn L. and Johansson H. (2002). Ductility Aspects in Nailed Glue-Laminated Timber Connection Design. Journal of Structural Division. ASCE, 128, 382-389.

UBC (1994). Earthquake Base Shear Terms. NAU OTLE (Web site). Northern Arizona University

Downloads

Published

2023-12-11

How to Cite

M., K. J., & O., A. J. (2023). Reliability-based Capacity Rating of Wood Shear Walls under Seismic Loading. International Journal of Engineering and Mathematical Intelligence (IJEMI) , 2(1&2), 9–18. Retrieved from http://icidr.org.ng/index.php/Ijemi/article/view/408

Issue

Section

Articles