Research Article | Open Access | Download PDF
Volume 1 | Issue 1 | Year 2011 | Article Id. IJCOT-V1I1N1P2 | DOI : https://doi.org/10.14445/22492593/IJCOT-V1I1N1P2
Buckling Behavior of Rectangular Plates With Different Central Cutouts
Mr. Ashokkumaar.A
Citation :
Mr. Ashokkumaar.A, "Buckling Behavior of Rectangular Plates With Different Central Cutouts," International Journal of Computer & Organization Trends (IJCOT), vol. 1, no. 1, pp. 6-10, 2011. Crossref, https://doi.org/10.14445/22492593/IJCOT-V1I1N1P2
Abstract
Mechanical buckling analyses were performed on rectangular plates with central cutouts. The cutouts were either circular holes or square holes. The finite-element structural analysis method was used to study the effects of plate-support conditions, plate aspect ratio, hole geometry, and hole size on the mechanical buckling strengths of the perforated plates. The compressive-buckling strengths of the plates could be increased considerably only under certain boundary conditions and aspect ratios. The plate-buckling mode can be symmetrical or antisymmetrical, depending on the plate boundary conditions, aspect ratio, and the hole size. For the same cutout areas (i.e., same plate weight density), the buckling strengths of the same-sized plates with square holes generally surpass those of the plates with circular holes over the range of hole sizes.
Keywords
The results and illustrations provide vital information for the efficient design of aerospace structural panels.
References
[1] Levy, Samuel, Ruth M. Woolley, and Wilhelmina D. Kroll,
“Instability of Simply Supported Square Plate With
Reinforced Circular Hole in Edge Compression,” Journal of
Research, National Bureau of Standards, vol. 39, research
paper no. RP1849, Dec. 1947, pp. 571–577.
[2] Kumai, Toyoji, “Elastic Stability of the Square Plate With a
Central Circular Hole Under Edge Thrust,” Proc. Japan Nat.
Cong. Appl. Mech., 1951, pp. 81–88.
[3] Schlack, A. L., Jr., “Elastic Stability of Pierced Square
Plates,” Experimental Mechanics, June 1964, pp. 167–172.
[4] Schlack, Alois L., Jr., “Experimental Critical Loads for
Perforated Square Plates,” Experimental Mechanics, Feb.
1968, pp. 69–74.
[5] Kawai, T. and H. Ohtsubo, “A Method of Solution for the
Complicated Buckling Problems of Elastic Plates WithCombined Use of Rayleigh-Ritz’s Procedure in the Finite
Element Method,” AFFDLTR- 68-150, 1968.
[6] Yu, Wei-Wen and Charles S. Davis, “Cold-Formed Steel
Members With Perforated Elements,” J. Structural Division,
ASCE, vol. 99, no. ST10, Oct. 1973, pp. 2061–2077.
[7] Ritchie, D. and J. Rhodes, “Buckling and Post-Buckling
Behaviour of Plates With Holes,” Aeronautical Quarterly,
vol. 26, Nov. 1975, pp. 281–296.
[8] Nemeth, Michael Paul, “Buckling Behavior of Orthotropic
Composite Plates With Centrally Located Cutouts,” Ph. D.
Dissertation, Virginia Polytechnic Institute and State
University, May 1983.
[9] Nemeth, Michael P., A Buckling Analysis for Rectangular
Orthotropic Plates With Centrally Located Cutouts, NASA
TM-86263, Dec. 1984.
[10] Nemeth, Michael P., Manuel Stein, and Eric R. Johnson, An
Approximate Buckling Analysis for Rectangular Orthotropic
Plates With Centrally Located Cutouts, NASA TP-2528, Feb.
1986.
[11] Nemeth, M. P., “Buckling Behavior of Compression-Loaded
Symmetrically Laminated Angle-Ply Plates With Holes,”
AIAA Journal, vol. 26, no. 3, Mar. 1988, pp. 330–336.
[12] Lee, Y. J., H. J. Lin, and C. C. Lin, “A Study on the Buckling
Behavior of an Orthotropic Square Plate With a Central
Circular Hole,” Composite Structures, vol. 13, no. 3, 1989,
pp.173–188.
[13] Timoshenko, Stephen P. and James M. Gere, Theory of
Elastic Stability, 2nd ed., McGraw-Hill Book Company, New
York, 1961.
[14] Whetstone, W. D., SPAR Structural Analysis System
Reference Manual: System Level 13A, vol. 1, Program
Execution, NASA CR-158970-1, Dec. 1978.