Let D be the Drinfeld double of F K 3 #kS 3 . The simple D-modules were described in [24]. In the present work, we describe the indecomposable summands of the tensor products between them. We classify the extensions of the simple modules and show that D is of wild representation type. We also investigate the projective modules and their tensor products. 2000 Mathematics Subject Classification.16W30. C. V. was partially supported by CONICET, Secyt (UNC), FONCyT PICT 2016-3957, Programa de Cooperación MINCyT-FWO, MathAmSud project GR2HOPF and ESCALA Docente AUGM.The remainder simple modules generate a single block of the category of D-modules because they are composition factors of an indecomposable module, the Verma module of (σ, −) [24, Theorem 7]. In Section 3, we compute the extensions between these simple modules and show that D is of wild representation type. We draw the separated quiver of D in Figure 1.The major effort of our work is in describing the indecomposable summands of the tensor products of simple modules.Theorem 1.1. Let D be the Drinfeld double of FK 3 #kS 3 . Given λ, µ ∈ Λ, the indecomposable summands of the tensor product L(λ)⊗L(µ) are described in Propositions 4.1, 4.3, 4.7, 4.9, 4.10, 5.5 and 5.6.The outcome of the above is resumed in Table 2. We find out new indecomposable modules A, B and C which are not either simple or projective. We schematize them in Figures 2, 3 and 4, respectively. If one of the factors is projective, the tensor product is also projective and then we can use results from [26] in order to describe its direct summands. However, we do not have enough space in the table to write them except when both factors are projective. In this case, Ind(λ · µ) is the induced module D⊗ D(S3) (λ⊗µ) which is not necessary indecomposable. The cells under the diagonal are empty because D is quasitriangular and hence the tensor product is commutative. We do not include L(ε) in the table because it is the unit object.