! start cycle 3
! ******************************
nsel,s,node,,ntop
f,all,fy,-f! define load for load step 6
nsel,all
nsubst,4,25,2! set the number of substeps, max and min number
! of substeps
solve! solve load step 6
nsel,s,node,,ntop
f,all,fy,f! define load for load step 7
nsel,all
nsubst,4,25,2! set the number of substeps, max and min number
! of substeps.
solve! solve load step 7
save
fini
/post1
set,last! read in the results from the last substep of
! the last step.
pldi,2! plot the deformed mesh with the undeformed
! edge only
ples,nl,epeq! plot the total accumulated equivalent
! plastic strains
fini
/post26
eplo! plot the mesh
nsel,s,node,,ntop! select the node where the point load is attached
esln! select the element attached to this node
elem=elnext(0)! get the number of this element
alls! select back everything in the model
! define variable 2 to be y component of stress at the node where the point
! load is applied
esol,2,elem,ntop,s,y,
! define variable 3 to be y component of elastic strain at the node where the
! point load is applied
esol,3,elem,ntop,epel,y,
! define variable 4 to be y component of plastic strain at the node where the
! point load is applied
esol,4,elem,ntop,eppl,y,
prvar,2,3,4
fini
8.15. Where to Find Other Examples.
Several ANSYS, Inc. publications, particularly the Mechanical APDL Verification Manual, describe additional
nonlinear analyses.
The Mechanical APDL Verification Manual consists of test case analyses demonstrating the analysis cap-
abilities of the program. While these test cases demonstrat e solutions to realistic analysis problems, the
Mechanical APDL Verification Manual does not present them as step-by-step examples with lengthy data
input instructions and printouts. However, most users who have at least limited finite element experience
should be able to fill in the missing details by reviewing each test case's finite element model and input
data with accompanying comments.
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Nonlinear Structural Analysis