Energy Dissipation in Linear Viscoelasticity

We compare the specific dissipation Q−1ω for the Becker, Lomnitz, and Lambert models in linear viscoelasticity. Graphically, the specific dissipation of these models behaves similarly as ω→0+ and ω→+∞. Furthermore, we obtain analytic formulas for the asymptotic behavior of Q−1ω in the Becker and Lomnitz models as ω→0+ and ω→+∞, where the latter limit coincides with the specific dissipation of the Maxwell model. We also derive a novel closed-form expression for the specific dissipation in the generalized Becker model, Qν−1ω, when the parameter ν∈0,1 is rational. When ν→0, we recover the specific dissipation of the Maxwell model, whereas when ν=1, we recover that of the original Becker model. In addition, we derive two new closed-form expressions for the specific dissipation for the extended Jeffreys–Lomnitz model Qα−1ω, the first being valid for α∈0,1, and the second for α∈−∞,1. When α→0, we recover the specific dissipation of the Lomnitz model, whereas when α=1, we recover that of the Maxwell model. Finally, we conclude that the asymptotic behavior of Qα−1ω as ω→+∞ coincides with the specific dissipation of the Maxwell model.

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Publication Details

Journal
Mathematics
Published
2026-08-13
DOI
https://doi.org/10.3390/math14162936
Primary Topic
Rheology and Fluid Dynamics Studies
Type
article
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article

Energy Dissipation in Linear Viscoelasticity

Francesco Mainardi, Juan Luis González‐Santander
Mathematics
Rheology and Fluid Dynamics Studies
article

Energy Dissipation in Linear Viscoelasticity

Francesco Mainardi, Juan Luis González‐Santander
article en

Abstract

We compare the specific dissipation Q−1ω for the Becker, Lomnitz, and Lambert models in linear viscoelasticity. Graphically, the specific dissipation of these models behaves similarly as ω→0+ and ω→+∞. Furthermore, we obtain analytic formulas for the asymptotic behavior of Q−1ω in the Becker and Lomnitz models as ω→0+ and ω→+∞, where the latter limit coincides with the specific dissipation of the Maxwell model. We also derive a novel closed-form expression for the specific dissipation in the generalized Becker model, Qν−1ω, when the parameter ν∈0,1 is rational. When ν→0, we recover the specific dissipation of the Maxwell model, whereas when ν=1, we recover that of the original Becker model. In addition, we derive two new closed-form expressions for the specific dissipation for the extended Jeffreys–Lomnitz model Qα−1ω, the first being valid for α∈0,1, and the second for α∈−∞,1. When α→0, we recover the specific dissipation of the Lomnitz model, whereas when α=1, we recover that of the Maxwell model. Finally, we conclude that the asymptotic behavior of Qα−1ω as ω→+∞ coincides with the specific dissipation of the Maxwell model.

MathematicsVol. 14(16)
Universidad de Oviedo (ES), University of Bologna (IT)
Affordable and clean energy
Openalex Percentile: Top 18%
Rheology and Fluid Dynamics Studies
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