SEISMIC ANALYSIS OF LIQUID STORAGE TANKS

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AbdulMuttalib I. Said

Abstract

earthquake excitations. Above and below ground tank, uses have been considered. A linear threedimensional finite element analysis has been used to predict the natural frequencies. Analysis parameters are the ratio of height to length of the tank, the type of soil, level of water in the tank, and also the wall thickness. The results for top displacement and axial force components for a full tankabove ground case have values greater than those in half- full (31%) and empty tank cases (75%). At the opposite of that, the underground tank demonstrates that top displacement and axial force components for an empty tank case have values greater than those in half- full (19%) and full tank cases (40%). The base shear for above ground tank case has values greater than those in underground tank cases (19% to 37%). The shear base for soil type 2 is greater than those in soil type 1(17% to 28%).

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How to Cite
“SEISMIC ANALYSIS OF LIQUID STORAGE TANKS” (2011) Journal of Engineering, 17(03), pp. 610–619. doi:10.31026/j.eng.2011.03.20.
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Articles

How to Cite

“SEISMIC ANALYSIS OF LIQUID STORAGE TANKS” (2011) Journal of Engineering, 17(03), pp. 610–619. doi:10.31026/j.eng.2011.03.20.

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References

• ANSYS Manual, Version 11. (2008).

• ASCE, American Society of Civil Engineering, (1984), “Fluid- Structure Interaction during Seismic Excitation,” Report by the Committee on Seismic Analysis.

• ASCE, American Society of Civil Engineers (1981),

• Chopra, A. K., (1996), “Dynamics of Structures (Theory and Applications to Earthquake Engineering)”, Prentice-Hill.

• Clough R. W., and Penzien, J., (2003), “Dynamics of Structures”, Third Edition Computers and Structures, Inc.

• Hallquist, John O., (1998), “LSDYNA Theoretical Manual”, Livermore Software Technology Corporation.

• Hanson, R.D., (1973), “Behavior of liquid storage tanks”, Report No. EERL 80-04, Caltech

• Haroun, M. A. and Chen, W., (1989), “Seismic large amplitude liquid sloshing theory”, Seismic Engineering Structures Congress, San Francisco, 418-427.

• Haroun, M. A. and Housner, G. W. (1980), “A Procedure for seismic design of liquid storage tanks”, Earthquake Engineering Research Lab. Report, Caltech, October

• Haroun, M. A. and Housner, G. W., (1981), “Seismic design of liquid storage tanks”, Journal of Technical

Councils of ASCE, Vol. 107, No. TC1, 191-207.

• Haroun, M. A., and Tayel, M. A., (1985), “Axisymmetric Vibration of Tank-Analytical and Numerical”,

Journal of Engineering Mechanics, ASCE, vol.111, No.3, pp. 329-358.

• Housner, G. W. (1957), “Dynamic pressures on accelerated fluid containers”, Bull. Seism. Soc., America, 47, 15- 35.

• Jennings, P.C. (1971), “Engineering features of the San Fernando earthquake, Report EERL 71-02, California Institute of Technology.

• Luft, R. W., (1984), “Vertical accelerations in prestressed concrete tanks”, Journal of Structural Engineering, ASCE, Vol. 110, No. 4,706-714.

• Manos, G.C. and Clough, R.W. (1985), “Tank damage during the may 1983 Coalinga earthquake”, Earthquake Engineering in Structural Dynamics, 13, 449-466.

• Nash, W.A., Balendra, T., Shaaban, S.H. and Mouzakis, T. (1978), “Finite element analysis of seismic response of cylindrical tanks”, ASCE Convention and Exposition, Preprint 3315, Chicago, Illinois.

• Prakash, S., (1981), “Soil Dynamics”, McGraw-Hill.

• Veletsos, A.S. and Tang, Y. (1986), “Dynamics of vertically excited liquid storage tanks”, Journal of Structural Engg. ASCE, 112, June, 1228-1246.

• Veletsos, A.S. and Yang, J.Y. (1976), “Dynamics of fixed-base liquid storage tanks”, U.S.-Japan Seminar for Earthquake Engineering Research, Tokyo, Japan.

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