Physical motion can be modeled using fractional derivatives representing damping forces.
Fractional derivatives are widely used in mathematical modeling to represent complex damping forces and viscoelastic behaviors in physical systems.
The retrieved papers provide robust theoretical and experimental evidence showing that fractional calculus and fractional-order derivatives are successfully employed to model damping forces, viscoelasticity, and dissipative mechanical systems.
F. Mainardi. Fractional Calculus: Some Basic Problems in Continuum and Statistical Mechanics. 2012
This review highlights how fractional calculus is used in continuum mechanics to model viscoelastic bodies and unsteady particle motion in viscous fluids, effectively generalizing classical spring-dashpot damping models.
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G. Catania, S. Sorrentino. Experimental Identification of a Fractional Derivative Linear Model for Viscoelastic Materials. 2005. https://doi.org/10.1115/DETC2005-85725
This study demonstrates that non-integer, fractional-order derivative rheological models provide physically consistent and effective descriptions of linear viscoelastic dynamic behavior and damping in mechanical structures.
Yuan Qin, Bokai Wang, Yuhui Wang, Yao Wang, Yong Song, Xin Shi. Fractional Order Kelvin-Voigt Constitutive Model and Dynamic Damping Characteristics of Viscoelastic Materials. 2024. https://doi.org/10.20855/ijav.2024.29.42078
This paper constructs a fractional order Kelvin-Voigt constitutive model to precisely characterize the dynamic damping properties and complex viscoelastic behavior of materials.
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