Paper
22 March 2021 Entropy dynamics approach to fractional order mechanics with applications to elastomers
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Abstract
Entropy dynamics is a Bayesian inference methodology that quantifies posterior probability densities and associated phases as a sequence of snap-shots in time to estimate the most likely material particle positions as a function of external stimuli (e.g., heat, traction, electromagnetic fields, chemicals, etc.). The inference method provides a means to create models at the continuum and quantum scales purely based on probability inference. Here we explore its application to fractal structure and fractional properties for polymer mechanics. We investigate how fractal polymer network structure influences the hyper-elastic constitutive behavior for a broad class of polymers such as auxetic foams, dielectric elastomers, and liquid crystal elastomers which can exhibit fractal structure and have applications in the development of adaptive structures.
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William Oates, Eugenia Stanisaukis, Basanta R. Pahari, and Somayeh Mashayekhi "Entropy dynamics approach to fractional order mechanics with applications to elastomers", Proc. SPIE 11589, Behavior and Mechanics of Multifunctional Materials XV, 1158905 (22 March 2021); https://doi.org/10.1117/12.2582423
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CITATIONS
Cited by 2 scholarly publications.
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KEYWORDS
Dielectrics

Foam

Mechanics

Fractal analysis

Bayesian inference

Calculus

Chemical analysis

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