“…We conclude this review by listing the following observations: (а) the most used analytical and numerical methods in the research field under consideration are as follows -the complex potential approach in conjunction with the techniques of conformal mapping (Li et al [36]), the method of potential displacements (Avazmohammadi et al [34]), the complex vari-ablesBEM (Mogilevskaya et al [28]), the finite element method (Gao et al [46], Tian and Rajapakse [27], Wang et al [47]), the finite and boundary element approach (Parvanova et al [16]), the BEM (Dineva et al [23], Dong and Pan [48], Dong and Lo [35], Parvanova et al [15,[17][18][19], Rangelov and Dineva [20], Rangelov et al [22]), the boundary elements and fractional derivatives (Rangelov et al [21]), the wave function expansion method and image method (Yang et al [45]). Although the well-known advantages of the BEM discussed in many books, among them the book by Dominguez [49], there is a lack of BEM models in the field of nanomechanics; (b) there is a lack of results for dynamic behavior of materials with nanoinclusions taking into account the following key factors: the transient character of the dynamic load, the material anisotropy, the consideration of multiple nanoinclusions with arbitrary number and geometry located in bounded anisotropic solids, the mutual play between surface elasticity and dynamic interaction of multiple nanoinclusions; (c) to the authors' best knowledge there is no solution of the problem for dynamic behavior of elastic anisotropic solids containing multiple elastic anisotropic nanoinclusions.…”