8. H modeling#

8.1. But#

The purpose of this test is to validate the use of load LIAISON_MAIL.

8.2. Description#

_images/100000000000032B000001C459D50FBBDE99FF09.png

On the mesh represented by the figure above, the 3D part (modeled by 3D elements) and the surface part (modeled by Q4GG elements) are connected with kinematic links using LIAISON_MAIL/COQUE_MASSIF of the operator AFFE_CHAR_MECA. The faces of the 3D elements in \(x=0\) are blocked and a force is imposed on a node located at the opposite end.

The calculation is done with STAT_NON_LINE. This provides an initial state for CALC_EUROPLEXUS. We do not impose on CALC_EUROPLEXUS any loads other than those that created the initial state.

8.3. Principle of validation#

Comparison with the initial state: it is considered that the load of type LIAISON_MAIL is considered to be well translated to EPX if the system remains in equilibrium, i.e. in the initial state provided.

8.4. Tested values#

Results from STAT_NON_LINE :

Node

Component

Reference Type

Reference Value

Tolerance

FLECHE

\(\mathit{DX}\)

“NON_REGRESSION”

“”

FLECHE

\(\mathit{DY}\)

“NON_REGRESSION”

“”

FLECHE

\(\mathit{DZ}\)

“NON_REGRESSION”

“”

Results from CALC_EUROPLEXUS :

Node

Component

Reference Type

Reference Value

Tolerance

FLECHE

\(\mathit{DX}\)

“AUTRE_ASTER”

“”

2.76027428973E-05

1E-3

FLECHE

\(\mathit{DY}\)

“AUTRE_ASTER”

“”

0.000201817506448

1E-3

FLECHE

\(\mathit{DZ}\)

“AUTRE_ASTER”

“”

0.00525919072834

1E-3