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Original Articles

A hierarchical asymptotic homogenization approach for viscoelastic composites

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Pages 2190-2201 | Received 21 Nov 2019, Accepted 24 Jan 2020, Published online: 10 Feb 2020

Figures & data

Figure 1. (a) Macroscale: viscoelastic heterogeneous material. (b) ε1-structural level. Mesoscale: quasi-periodic cell. (c) ε2-structural level. Microscale: quasi-periodic cell. The inclusions do not intersect the boundaries.

Figure 1. (a) Macroscale: viscoelastic heterogeneous material. (b) ε1-structural level. Mesoscale: quasi-periodic cell. (c) ε2-structural level. Microscale: quasi-periodic cell. The inclusions do not intersect the boundaries.

Figure 2. The hierarchical structure of the dermis similar to Figure 3(v–vi) of Sherman et al. [Citation39]. The figure presents a relation with the , where (b) and (c) correspond to (i) and (ii), respectively.

Figure 2. The hierarchical structure of the dermis similar to Figure 3(v–vi) of Sherman et al. [Citation39]. The figure presents a relation with the Figure 1, where Figure 1 (b) and (c) correspond to Figure 2 (i) and (ii), respectively.

Table 1. Mechanical properties for the constituents of the dermis (see Ref. [Citation27, Citation37]).

Table 2. Coefficients of the Prony series for a mice dermis (see Ref. [Citation36]).

Figure 3. Computation of the effective relaxation modulus for the dermis. H/L=0.25 and x2=0.5.

Figure 3. Computation of the effective relaxation modulus for the dermis. H/L=0.25 and x2=0.5.

Table 3. Computation of the effective relaxation modulus and the effective creep compliance for the dermis. The input parameters are given in and .