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The Quarterly Journal of Mechanics and Applied Mathematics 1997 50(3):407-426; doi:10.1093/qjmam/50.3.407
© 1997 by Oxford University Press
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THE THREE-DIMENSIONAL ELASTOSTATIC GREEN'S FUNCTION FOR GENERAL ANISOTROPIC LINEAR ELASTIC SOLIDS

T. C. T. TING and VEN-GEN LEE

( University of Illinois at Chicago, Department of Civil and Materials Engineering 842 West Taylor Street (M/C246), Chicago, Illinois 60607–7023, USA )

A new solution is obtained for the Green's function for a three-dimensional space of general anisotropic elastic medium subject to a unit point force at x = 0. The novel features of the new solution are that (i) it is explicit in terms of the Stroh eigenvalues pv(v = 1, 2, 3) on the oblique plane whose normal is the position vector x, and (ii) it remains valid for the degenerate cases p1 = p2 and p1 = p2 = p3. The classical solution by Lifshitz and Rozenzweig has the feature (i) but not (ii). Moreover their solution is less explicit than the solution presented here. Other explicit solutions in the literature may have the feature (i) but they require computation of the Stroh eigenvectors. The Stroh eigenvalues pv are the roots with positive imaginary part of a sextic algebraic equation. The Green's function is particularly simple when the sextic equation is a cubic equation in p2. This is the case for any point in a transversely isotropic material and for points on a symmetry plane of cubic materials and monoclinic materials. Application to these materials yields new results that are either unavailable in the literature, or simpler than those available in the literature. We also present Green's function for points on the normal to the symmetry plane of monoclinic materials.


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Mathematics and Mechanics of SolidsHome page
T. C.T. Ting
Anisotropic Elastic Materials for which the Sextic Equation is a Cubic Equation in p2
Mathematics and Mechanics of Solids, March 1, 1998; 3(1): 3 - 16.
[Abstract]



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