[1] Lorenz R., Buckling of a Cylindrical Shell under Axial Compression (In German),
J. Zeitschrift des Vereines Deutscher Ingenieure, Vol. 52,1908
[2] Southwell R., On the General Theory of Elastic Stability, Philosophical Transactions of the Royal, Vol.213, pp. 497-508, 1914
|
[3] Von Mises R., Der Kritische Aussendruck Fur Allseits Belastete Zylindrishe Rohre, Fest Zurnal, pp. 418-430, 1917
|
[4] Flugge, W., Die Stabilitat der Kreizylinderschale, Ing.Arch, Vol. 3, pp.463-506, 1932
|
[5] Schwerin E., Die torsionsstabilita des dunnwandigen rohres, ZAMM, Vol. 5, pp. 235-243, 1925
|
[6] Donnell L., Stability of thin-walled tubes under torsion, NACA, Vol. 479, pp. 75-116,1933
|
[7] Ross, C.T.F., A novel submarine pressure hall design, J. Ship Res. 31.Vol.3, pp. 186–188. 1987
|
[8] Yuan, K.Y., Liang, C.C., Ma Y.C. Investigation of the cone angle of a novel swedge-stiffened pressure hall, J. Ship Res. 35 Vol. 1, pp. 83–86 1991
|
[9] Ross, C.T.F., Palmer, A General instability of swedge-stiffened circular cylinders under uniform external pressure, J. Ship Res. 37 Vol.1, pp.77–85 1993
|
[10] Ross, C.T.F., Humphries, M., The buckling of corrugated circular cylinders under uniform external pressure. Thin-Walled Struct. 17 Vol. 4, pp. 259–271 1993
|
[11] Ross, C.T.F. and Heigl, T, Buckling of corrugated axisymmetric shells under uniform external pressure, In: Proceedings of ASME Conference on Structural Dynamics and Vibration. PD-Vol. 70, Houston, Texas, pp. 199–205 1995
|
[12] Ross, C.T.F., Little, A.P.F., The buckling of a corrugated carbon fiber cylinderunder external hydrostatic pressure, Ocean Eng. 28 Vol.9. pp 1247–1264. 2001
|
[13] Bushnell, D., Crippling and buckling of corrugated ring-stiffened cylinders, J. Spacecr. Rockets Vol. 9., pp. 357–363 1972
|
[14] Öry, H. and Hoffmann, H., Stability of corrugated shells. In: Proceedings of the ECCS Colloquium on Stability of Plate and Shell Structures, Ghent University Ghent, Belgium, pp. 567–576. 1987
|
[15] Öry, H., Hoffmann, H., Buckling and vibration of corrugated shells, Elishakoff, I., Arbocz, J., Babcock, C.D., Libai, A. (Eds.), "Buckling of Structures: Theory and Experiment." (Studies in Applied Mechanics), Vol. 19. Elsevier, New York, pp. 285–312 1988
|
[16] Ross, C.T.F., Waterman, G.A., Inelastic instability of circular corrugated cylinders under external hydrostatic pressure. Ocean Eng. Vol 27, pp. 331–343 2000
|
[17] Ross C.T.F., Waddington A., Punjau D., Dunn J., Bayly A., Sadler P., Ashwell J. and Little A.P.F., "Geometrical and material non-linear analyses of corrugated circular cylinders, suffering buckling, under external hydrostatic pressure. Proceedings of Civil-Comp. Conference. Cagliari, Sardinia, Italy 2013
|
[18] Niloufari A., Showkati H., Maali M., Fatemi S.M., Experimental investigation on the effect of geometric imperfections on the buckling and post-buckling behavior of steel tanks under hydrostatic pressure, Thin-Walled Struct. Vol. 74, pp. 59–69. 2014
|
[19] Ghazijahani, TG., Zirakian T., Determination of buckling loads of conical shells using extrapolation techniques, Thin-Walled Struct. Vol. 74, pp.292–299, 2014
|
[20] Ghazijahani TG., Showkati H., Experiments on cylindrical shells under pure bending and external pressure, J. Constr. Steel Res. Vol 88, pp. 109–122 2013
|
[21] Volmir, A.S., Stability of Elastic Systems, Gos. Izd-vo Fiz. Mat. Lit., Moscow, 1963 (in Russian)
|
[22] ABS, American Bureau of Shipping Incorporated by Act of Legislature of the State of New York. Rules for Building and classing, Underwater vehicles, Systems and hyperbaric facilities 2018
|
[23] Tengfei T., Baoren L. Y. X., Lihui L., Xiaoyun Fu, Passive compensation analysis of Underwater glider under Seawater Pressure, The Japan Fluid Power System Society, Vol. 10, pp 3-4, 2017
|