Transferring results with damage

The verification tests in this section consist of one-element models that are subjected to monotonically increasing tensile loads in sequential import analyses. Two sequences of tests are performed. The first sequence involves transferring results from Abaqus/Explicit to Abaqus/Standard and then again to Abaqus/Standard; the second involves transferring results from Abaqus/Standard to Abaqus/Explicit only. In the analyses an elastic-plastic material with Mises yield criterion is used in conjunction with ductile, shear, FLD, FLSD, and MSFLD damage initiation criteria and displacement or energy-based damage evolution laws.

The following material properties are used (the units are not important):

Material 1:

Elasticity

Young's modulus, E = 2.0 × 10¹¹

Poisson's ratio, $\nu$ = 0.33

Density

$\rho$ = 2000.0

Plasticity (isotropic hardening)

Yield stress	Plastic strain
2.0 × 108	0.0
6.0 × 108	2.0

Ductile damage initiation properties

Equivalent plastic strain at damage initiation	Stress triaxiality
1.8	−0.5
1.5	−0.1
1.0	0.0
0.90	0.1
0.80	0.3
0.50	0.6
0.30	1.0

Material 2:

Elasticity

Young's modulus, E = 2.0 × 10¹¹

Poisson's ratio, $\nu$ = 0.33

Density

$\rho$ = 2000.0

Plasticity (isotropic hardening)

Yield stress	Plastic strain
2.0 × 108	0.0
6.0 × 108	2.0

Ductile damage initiation properties

Equivalent plastic strain at damage initiation	Shear stress ratio	Strain rate
0.6	−10.	0.001
0.6	1.4	0.001
1.0	1.8	0.001
1.6	2.0	0.001
2.3	2.5	0.001
2.4	10.	0.001

Material 3:

Elasticity

Young's modulus, E = 2.0 × 10¹¹

Poisson's ratio, $\nu$ = 0.33

Density

$\rho$ = 2000.0

Plasticity (isotropic hardening)

Yield stress	Plastic strain
2.0 × 108	0.0
4.0 × 108	2.0

FLD damage initiation properties

Major principal strain	Minor principal strain
0.30	−0.2
0.20	−0.1
0.15	0.0
0.25	0.1
0.40	0.2

Material 4:

Elasticity

Young's modulus, E = 2.0 × 10¹¹

Poisson's ratio, $\nu$ = 0.33

Density

$\rho$ = 2000.0

Plasticity (isotropic hardening)

Yield stress	Plastic strain
2.0 × 108	0.0
4.0 × 108	2.0

FLSD damage initiation properties

Major principal strain	Minor principal strain
3.0 × 108	2.0 × 108
3.5 × 108	3.0 × 108
4.0 × 108	3.5 × 108
4.2 × 108	4.0 × 108

Material 5:

Elasticity

Young's modulus, E = 2.0 × 10¹¹

Poisson's ratio, $\nu$ = 0.33

Density

$\rho$ = 2000.0

Plasticity (isotropic hardening)

Yield stress	Plastic strain
3.0 × 108	0.0
4.0 × 108	2.0

MSFLD damage initiation properties

Major principal strain	Minor principal strain
0.30	−0.2
0.15	0.0
0.20	0.1
0.25	0.2
0.30	0.4
0.40	0.6
0.60	0.7

Material 6:

Damage evolution properties for the evolution law based on equivalent plastic displacement with linear softening

Effective plasticdisplacement at failure
1.0

All other material parameters are identical to those specified for Material 1.

Material 7:

Damage evolution properties for the evolution law based on equivalent plastic displacement with tabular softening

Damage variable	Effective plasticdisplacement at failure
0.0	0.0
1.0	1.0

All other material parameters are identical to those specified for Material 1.

Material 8:

Damage evolution properties for the evolution law based on equivalent plastic displacement with exponential softening

Effective plasticdisplacement at failure	Exponential lawparameter
0.25	1.0

All other material parameters are identical to those specified for Material 1.

Material 9:

Damage evolution properties for the evolution law based on energy dissipation with linear softening

Fracture energy
4.0 × 108

All other material parameters are identical to those specified for Material 1.

Material 10:

Damage evolution properties for the evolution law based on energy dissipation with exponential softening

Fracture energy
1.0 × 108

All other material parameters are identical to those specified for Material 1.