Trans RINA, Vol 161, Part A4, Intl J Maritime Eng, Oct-Dec 2019 16. 17. 18.
BECKER, W., 1993. Closed-form solution for the free-edge effect in cross-ply laminates. Composite Structures, Volume 26, pp. 39-45.
BECKER, W., 1994. Closed-form analysis of the free edge effect in angle-ply laminates. Journal of applied mechanics, Volume 61, pp. 209-211.
BERT, C. W. & MALIK, M., 1996. The differential quadrature method for irregular domains and application to plate vibration. International Journal of Mechanical Sciences, Volume 38, pp. 589-606.
19. 20.
BHASKAR, K. & VARADAN, T. K., 1993. Interlaminar stresses in composite cylindrical shells under transient loads. Journal of sound and vibration, Volume 168, pp. 469-477.
BHIMARADDI, A. & STEVENS, L. K., 1984. A higher order theory for free vibration of orthotropic, homogeneous, and laminated rectangular plates. Journal of applied mechanics, Volume 51, pp. 195-198.
21. 22. 23. 24.
BHIMARADDI, A. & STEVENS, L. K., 1986. ‘On the Higher Order Theories in Plates and Shells. Int. J. Struct, Volume 6, pp. 35-50.
BOLLE, L., 1947. Contribution au probleme lineaire de flexion d'une plaque elastique. s.l.:Ed. de la Societe du Bulletin technique de la Suisse romande.
BYUN, C. & KAPANIA, R. K., 1992. Prediction of interlaminar stresses in laminated plates using globalorthogonal interpolation polynomials. AIAA journal, Volume 30, pp. 2740-2749.
CARRERA, E., 2007. On the use of transverse shear
25. stress homogeneous and non-
homogeneous conditions in third-order orthotropic plate theory. Composite structures, Volume 77, pp. 341-352.
CHALAK, H. D., CHAKRABARTI, A., SHEIKH, A. H. & IQBAL, M. A., 2014. C0 FE model based on HOZT for the analysis of laminated soft core skew sandwich plates: Bending and vibration. Applied Mathematical Modelling, Volume 38, pp. 1211-1223.
26. 27.
CHATTERJEE, S. N. & KULKARNI, S. V., 1979. Shear correction factors for laminated plates. AIAA Journal, Volume 17, pp. 498-499.
CHEUNG, Y. K., THAM, L. G. & LI, W. Y., 1988. Free vibration and static analysis of general plate by spline finite strip. Computational mechanics, Volume 3, pp. 187- 197.
28. 29. 30.
CHOW, T. S., 1971. On the propagation of flexural waves in an orthotropic laminated plate and its response to an impulsive load. Journal of Composite Materials, Volume 5, pp. 306-319.
CHOW, T. S., 1975. Theory of unsymmetric laminated plates. Journal of Applied Physics, Volume 46, pp. 219-221.
CIVALEK, Ö., 2017. Free vibration of carbon nanotubes reinforced (CNTR) and functionally graded shells and plates based on FSDT via
41. 39. 31. 32.
discrete singular convolution method. Composites Part B: Engineering, Volume 111, pp. 45-59.
COOK, R. D. & OTHERS, 2007. Concepts and applications of finite element analysis. s.l.:John Wiley & Sons.
COSENTINO, E. & WEAVER, P., 2010. An enhanced single-layer variational formulation for the effect of transverse shear on laminated orthotropic plates. European Journal of Mechanics-A/Solids, Volume 29, pp. 567-590.
33. 34. 35.
36. 37.
DEY, P. & SINGHA, M. K., 2006. Dynamic stability analysis of composite skew plates subjected to periodic in-plane load. Thin-walled structures, Volume 44, pp. 937-942.
DOBYNS, A. L., 1981. Analysis of simply- supported orthotropic plates subject to static and dynamic loads. AiAA Journal, Volume 19, pp. 642-650.
DONG, S. B., 1962. On the theory of laminated anisotropic shells and plates. Journal of the Aerospace Sciences, Volume 29, pp. 969-975.
DYM, C. L., SHAMES, I. H. & OTHERS, 1973. Solid mechanics. s.l.:Springer.
EFTEKHARI, S. A. & JAFARI, A. A., 2012. High accuracy mixed finite element-Ritz formulation for free vibration analysis of plates with general boundary conditions. Applied Mathematics and Computation, Volume 219, pp. 1312-1344.
38.
EFTEKHARI, S. A. & JAFARI, A. A., 2013. Modified mixed Ritz-DQ formulation for free vibration of thick rectangular and skew plates with general boundary conditions. Applied Mathematical Modelling, Volume 37, pp. 7398- 7426.
FALLAH, A., KARGARNOVIN, M. H. & AGHDAM, M. M., 2011. Free vibration analysis of symmetrically laminated fully clamped skew plates using extended Kantorovich method. s.l., s.n., pp. 739-744.
40.
FALLAH, N. & DELZENDEH, M., 2018. Free vibration analysis of laminated composite plates using meshless finite volume method. Engineering Analysis with Boundary Elements, Volume 88, pp. 132-144.
FERREIRA, A. J. M., ROQUE, C. M. C. & JORGE, R. M. N., 2005. Free vibration analysis of symmetric laminated composite plates by FSDT and radial basis functions. Computer Methods in Applied Mechanics and Engineering, Volume 194, pp. 4265-4278.
42. 43.
GANAPATHI, M. & PRAKASH, T., 2006. Thermal buckling of simply supported functionally graded skew plates. Composite Structures, Volume 74, pp. 247-250.
GARCÍA-MACÍAS, E. et al., 2016. Static and free vibration analysis of functionally graded carbon nanotube reinforced skew plates. Composite Structures, Volume 140, pp. 473-490.
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