Code covered by the BSD License
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WTS_GUI(varargin)
End initialization code - DO NOT EDIT
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A=A(A0,H0,T)
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[T33,truestrain,J,S33,R33]=WT...
This function determines the total true axial stress in a glassy polymer in uniaxial deformation according to the WTS model
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d=dev(a)
This function determines the deviatoric part of a
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d=symm(l)
Calculates the symmetric part of l
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dp=dplas(sig,tau0,A0,H0,T)
Calculates the plastic strain rate as a function of the stress tensor sig
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dy=evolution(time,y,strainrat...
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f=B(epsilon,poisson);
isochoric part of the chauchy green tensor
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f=F(epsilon,poisson);
deformation gradient tensor F
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f=Vact(a,b,truestrain)
In this model, the activation volume is a function of invariants of the strain tensor. A Poisson's ratio of 0.5 is assumed.
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s=sigma(J,Be,K,G)
Calculates the Cauchy stress tensor
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t=taueq(sigma)
This function calculates the equivalent stress
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w=asym(l)
Calculates the anti-symmetric part of l
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example.m
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View all files
from
WTS (formerly Leonov) + GUI
by Michael Wendlandt
Calculates stress vs. strain curves of plastically deformed glassy polymers. GUI available.
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| All files for WTS (formerly Leonov) + GUI |
/WTS/A.m
/WTS/B.m
/WTS/F.m
/WTS/Manual WTS.pdf
/WTS/Vact.m
/WTS/WTS.m
/WTS/WTS_GUI.fig
/WTS/WTS_GUI.m
/WTS/asym.m
/WTS/dev.m
/WTS/dplas.m
/WTS/evolution.m
/WTS/example.m
/WTS/sigma.m
/WTS/symm.m
/WTS/taueq.m
/license.txt
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