- Journal Home
- Volume 37 - 2024
- Volume 36 - 2023
- Volume 35 - 2022
- Volume 34 - 2021
- Volume 33 - 2020
- Volume 32 - 2019
- Volume 31 - 2018
- Volume 30 - 2017
- Volume 29 - 2016
- Volume 28 - 2015
- Volume 27 - 2014
- Volume 26 - 2013
- Volume 25 - 2012
- Volume 24 - 2011
- Volume 23 - 2010
- Volume 22 - 2009
- Volume 21 - 2008
- Volume 20 - 2007
- Volume 19 - 2006
- Volume 18 - 2005
- Volume 17 - 2004
- Volume 16 - 2003
- Volume 15 - 2002
- Volume 14 - 2001
- Volume 13 - 2000
- Volume 12 - 1999
- Volume 11 - 1998
- Volume 10 - 1997
- Volume 9 - 1996
- Volume 8 - 1995
- Volume 7 - 1994
- Volume 6 - 1993
- Volume 5 - 1992
- Volume 4 - 1991
- Volume 3 - 1990
- Volume 2 - 1989
- Volume 1 - 1988
Existence of Weak Solutions for the Cahn-Hilliard Reaction Model Including Elastic Effects and Damage.
Cited by
Export citation
- BibTex
- RIS
- TXT
@Article{JPDE-30-111,
author = {Kraus , Christiane and Roggensack , Arne},
title = {Existence of Weak Solutions for the Cahn-Hilliard Reaction Model Including Elastic Effects and Damage.},
journal = {Journal of Partial Differential Equations},
year = {2017},
volume = {30},
number = {2},
pages = {111--145},
abstract = { In this paper, we introduce and study analytically a vectorial Cahn-Hilliard reaction model coupled with rate-dependent damage processes. The recently proposed Cahn-Hilliard reaction model can e.g. be used to describe the behavior of electrodes of lithium-ion batteries as it includes both the intercalation reactions at the surfaces and the separation into different phases. The coupling with the damage process allows considering simultaneously the evolution of a damage field, a second important physical effect occurring during the charging or discharging of batteries. Mathematically, this is realized by a Cahn-Larch systemwith a non-linear Newton boundary condition for the chemical potential and a doubly non-linear differential inclusion for the damage evolution. We show that this system possesses an underlying generalized gradient structure which incorporates the non-linear Newton boundary condition. Using this gradient structure and techniques from the field of convex analysis we are able to prove constructively the existence of weak solutions.},
issn = {2079-732X},
doi = {https://doi.org/10.4208/jpde.v30.n2.2},
url = {http://global-sci.org/intro/article_detail/jpde/10002.html}
}
TY - JOUR
T1 - Existence of Weak Solutions for the Cahn-Hilliard Reaction Model Including Elastic Effects and Damage.
AU - Kraus , Christiane
AU - Roggensack , Arne
JO - Journal of Partial Differential Equations
VL - 2
SP - 111
EP - 145
PY - 2017
DA - 2017/05
SN - 30
DO - http://doi.org/10.4208/jpde.v30.n2.2
UR - https://global-sci.org/intro/article_detail/jpde/10002.html
KW - Cahn-Hilliard reaction system
KW - rate-dependent damage
KW - phase separation
KW - existence
KW - non-linear Newton boundary condition
AB - In this paper, we introduce and study analytically a vectorial Cahn-Hilliard reaction model coupled with rate-dependent damage processes. The recently proposed Cahn-Hilliard reaction model can e.g. be used to describe the behavior of electrodes of lithium-ion batteries as it includes both the intercalation reactions at the surfaces and the separation into different phases. The coupling with the damage process allows considering simultaneously the evolution of a damage field, a second important physical effect occurring during the charging or discharging of batteries. Mathematically, this is realized by a Cahn-Larch systemwith a non-linear Newton boundary condition for the chemical potential and a doubly non-linear differential inclusion for the damage evolution. We show that this system possesses an underlying generalized gradient structure which incorporates the non-linear Newton boundary condition. Using this gradient structure and techniques from the field of convex analysis we are able to prove constructively the existence of weak solutions.
Kraus , Christiane and Roggensack , Arne. (2017). Existence of Weak Solutions for the Cahn-Hilliard Reaction Model Including Elastic Effects and Damage..
Journal of Partial Differential Equations. 30 (2).
111-145.
doi:10.4208/jpde.v30.n2.2
Copy to clipboard