TY - JOUR
T1 - Submacroscopic Disarrangements Induce a Unique, Additive and Universal Decomposition of Continuum Fluxes
AU - Deseri, Luca
AU - Owen, David R.
N1 - Funding Information:
The authors acknowledge the Center for Nonlinear Analysis at Carnegie Mellon University through the NSF Grant No. DMS-0635983.
Funding Information:
L. Deseri gratefully acknowledges financial support from the grant PIAPP-GA-2013-609758-HOTBRICKS, “Mechanics of refractory materials at high temperature for advanced industrial technologies”, from the EU through the FP7 program, as well as the hospitality of the Departments of Mathematical Sciences, Civil and Environmental Engineering, and Mechanical Engineering of Carnegie Mellon University.
Publisher Copyright:
© 2015, Springer Science+Business Media Dordrecht.
Copyright:
Copyright 2016 Elsevier B.V., All rights reserved.
PY - 2016/2/1
Y1 - 2016/2/1
N2 - Refinements of the geometrical settings employed to describe deformations of continuous bodies are widely known to lead to refinements in the fields that describe how parts of the body interact with each other and with the exterior of the body. These refined fields can be defined universally and the relations among them may be regarded as universal, in the sense that the definitions and their consequences do not rest on particular constitutive assumptions, i.e., are independent of the specific material comprising the body. In this article we show that the two terms w∖$w_{\backslash }$ and wd$w_{d}$ appearing in a universal, additive decomposition of fluxes w$w$, previously studied in the field theory “elasticity with disarrangements,” are unique and may be described as the parts of w$w$ with and without disarrangements. The universal consistency relation satisfied by w∖$w_{\backslash }$ and wd$w_{d}$ provides a field relation that connects geometrical changes at different length scales and, when supplemented by additional constitutive relations, permits the determination of the “disarrangement phases” available to a given material body.
AB - Refinements of the geometrical settings employed to describe deformations of continuous bodies are widely known to lead to refinements in the fields that describe how parts of the body interact with each other and with the exterior of the body. These refined fields can be defined universally and the relations among them may be regarded as universal, in the sense that the definitions and their consequences do not rest on particular constitutive assumptions, i.e., are independent of the specific material comprising the body. In this article we show that the two terms w∖$w_{\backslash }$ and wd$w_{d}$ appearing in a universal, additive decomposition of fluxes w$w$, previously studied in the field theory “elasticity with disarrangements,” are unique and may be described as the parts of w$w$ with and without disarrangements. The universal consistency relation satisfied by w∖$w_{\backslash }$ and wd$w_{d}$ provides a field relation that connects geometrical changes at different length scales and, when supplemented by additional constitutive relations, permits the determination of the “disarrangement phases” available to a given material body.
KW - Dissipative materials
KW - Elasticity with disarrangements
KW - Multiscale nonlinear elasticity
KW - Structured deformations
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U2 - 10.1007/s10659-015-9542-5
DO - 10.1007/s10659-015-9542-5
M3 - Article
AN - SCOPUS:84955338095
VL - 122
SP - 223
EP - 230
JO - Journal of Elasticity
JF - Journal of Elasticity
SN - 0374-3535
IS - 2
ER -