ORIGINAL PAPER
Analytical Solution of Mixed Boundary Value Problems Using the Displacement Potential Approach for the Case of Plane Stress and Plane Strain Conditions
 
 
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Institute for Materials Research, Tohoku University, Tohoku, Japan
 
 
Online publication date: 2017-06-09
 
 
Publication date: 2017-05-24
 
 
International Journal of Applied Mechanics and Engineering 2017;22(2):269-291
 
KEYWORDS
ABSTRACT
Two elastic plate problems made of duralumin are solved analytically using the displacement potential approach for the case of plane strain and plane stress conditions. Firstly, a one end fixed plate is considered in which the rest of the edges are stiffened and a uniform load is applied to the opposite end of the fixed end. Secondly, a plate is considered in which all of the edges are stiffened and a uniform tension is applied at its both ends. Solutions to both of the problems are presented for the case of plane stress and plane strain conditions. The effects of plane stress and plane strain conditions on the solutions are explained. In the case of stiffening of the edges of the plate, the shape of the plate does not change abruptly, which is clearly observed in both of the cases. For the plane strain condition, the plates become stiffer in the loading direction as compared to the plane stress condition. For the plane strain condition, there is a significant variation of the normal stress component, σzz at different sections of the plate. The graphical results, clearly identify the critical regions of the plate for the case of the plane stress and plane strain condition.
REFERENCES (30)
1.
Airy G.B. (1863): On the strains in the interior of beams. - Philos. Trans. R. Soc. London, Ser. A 153, pp.49-79.
 
2.
Love A.E.H. (1892; 1944): A treatise on the mathematical theory of elasticity. - vol.1, Cambridge Univ. Press, Cambridge (1892), Reprinted: Dover, New York (1944).
 
3.
Filon L.N.G. (1903): On an approximate solution for the bending of a beam of rectangular cross-section under any system of load, with special references to points of concentrated or discontinuous loading. - Philos. Trans. R. Soc. London, Ser. A 201, pp.63-155.
 
4.
Michell J.H. (1899): On the direct determination of stress in an elastic solid, with application to the theory of plates. - Proc. London Math. Soc., vol.31, pp.100-121.
 
5.
Michell J.H. (1901): Elementary distributions of plane stress. - Proc. London Math. Soc., vol.32, pp.35-61.
 
6.
Papkovich P.F. (1937): A derivation the main formulae of the plain problem of the theory of elasticity from the general integral of the Lame equations (in Russian). - Prikl. Mat. Mekh., pp.147-154.
 
7.
Kolosov G.V. (1935): Application of complex diagrams and theory of functions of complex variable to the theory of elasticity (in Russian). - ONTI, Leningrad-Moscow.
 
8.
Golovin K.H. (1881): One problem in statics of an elastic body (in Russian). - Izvestiya St. Peterburg Prakt. Tekhnol. Inst., vol.3, pp.373-410.
 
9.
Muskhelishelishvili N.I. (1953): Some basic problems of the mathematical theory of elasticity. - Noordhoff, Groningen.
 
10.
Vigak V.M. (1997): Solution of two-dimensional problems of elasticity and thermoelasticity for a rectangular region. - Journal of Mathematical Sciences, vol..86, pp.2537-2542.
 
11.
Vihak V.M., Yuzvyak M.Yo. (2001): Key continuity equations in stresses for axisymmetric problems of elasticity and thermoelasticity. - Journal of Mathematical Sciences, vol.107, pp.3659-3665.
 
12.
Vihak V.M. (1995): The solution of the elasticity and thermoelasticity problem in stresses. - Integral Transformations and Their Applications to Boundary Problems, vol.9, pp.34-122.
 
13.
Vihak V., Tokovyi Y. and Rychahivskyy A. (2002): Exact solution of the plane problem of elasticity in a rectangular region. - Journal of Computational and Applied Mechanics, vol.3, pp.193-206.
 
14.
Vihak V.M. (1997): Construction of a solution of the plane problem of elasticity and thermoelasticity for orthotropic materials. - Mat. Metody Fiz.-Mekh. Polya, vol.40, pp.24-29.
 
15.
Parton V.Z. and Perlin P.I. (1981): Methods of Mathematical Theory of Elasticity [in Russian]. - Moscow: Nauka.
 
16.
Grinchenko V.T. (1978): Equilibrium and Steady Oscillations of Finite Elastic Bodies [in Russian]. - Kiev: Naukova Dumka.
 
17.
Vihak V.M. (1996): Solution of the two-dimensional problems of elasticity and thermoelasticity for rectangular domains. Mat. Met. Fiz.-Mekh. Polya, vol.39, pp.19-25.
 
18.
Vihak V.M. and Tokovyi Yu.V. (2002): Investigation of the plane stressed state in a rectangular domain. - Materials Science, vol.38, pp.230-237.
 
19.
Southwell R.V. (1945): On relaxation methods: A mathematics for engineering science, (Bakerian lecture), Proc. R. Soc. London, Ser. A 184, pp.253-288.
 
20.
Fox L. (1947): Mixed boundary conditions in the relaxational treatment of biharmonical problems (plane strain or stress). - Proc. R. Soc. London, Ser. A 239, pp.419-460.
 
21.
Meleshko V.V. (2003): Selected topics in the history of the two dimensional biharmonic problem. - Appl. Mech. Rev., vol.56, pp.33-85.
 
22.
Odgen R.W. and Isherwood D.A. (1979): Solution of some finite plane strain problems for compressible elastic solids. - J. Mechanics Appl. Math., vol.31, No.2, pp.219-249.
 
23.
Uddin M.W. (1966): Finite-difference solution of two-dimensional elastic problems with mixed boundary conditions. - M.Sc. Thesis, Carleton University, Canada.
 
24.
Patnaik S.N. (1986): The variational energy formulation for the integrated force method. - AIAA, J., vol.24, No.1, pp.129-137.
 
25.
Patnaik S.N., Pai S.S. and Hopkins D.A. (2003): Compatibility condition in theory of solid mechanics (Elasticity, Structures, and Design Optimization). - Appl. Mech. Rev., vol.56, pp.33-85.
 
26.
Ahmed S.R., Nath S.K.D. and Uddin M.W. (2005): Optimum shapes of tire-treads for avoiding lateral slippage between tires and roads. - International Journal for Numerical Methods in Engineering, vol.64, pp.729-750.
 
27.
Ahmed S.R. and Nath S.K.D. (2009): A simplified analysis of the tire-tread contact problem using displacement based finite-difference technique. - Computer Modelling in Engineering and Sciences, vol.44, pp.35-63.
 
28.
Nath S.K.D., Ahmed S.R. and Kim S-G. (2010): On the displacement potential solution of plane problems of structural mechanics with mixed boundary conditions. - Archive of Applied Mechanics, Published online.
 
29.
Timoshenko S. and Goodier J.N. (1951): Theory of Elasticity. - 2nd ed. New York: McGraw-Hill.
 
30.
Sadd M.H. (2005): Elasticity: Theory, Applications, Numerics. - USA and UK: Elsevier Academic Press.
 
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ISSN:1734-4492
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