6. D modeling#

6.1. Characteristics of modeling#

This is the same modeling as C modeling.

6.2. Characteristics of the mesh#

The mesh, which comprises 162 cells of the TETRA4 type, is represented in FIG. 6.2-a.

_images/1000020100000280000001E09DAAEC46256E296A.png

Figure 6.2-a: The modeling mesh D.

6.3. Tested sizes and results#

The quantities tested are identical to those presented for the C modeling.

Identification

Reference

Reference type

Precision

10^ -12%

DEPZON_1

DX

MIN

-0.25

“ANALYTIQUE”

MAX

-0.25

“ANALYTIQUE”

10^ -12%

DY

MIN

0

“ANALYTIQUE”

10^ -12%

MAX

0

“ANALYTIQUE”

10^ -12%

DEPZON_2

DX

MIN

-0.5

“ANALYTIQUE”

10^ -12%

MAX

-0.5

“ANALYTIQUE”

10^ -12%

DY

MIN

0

“ANALYTIQUE”

10^ -12%

MAX

0

“ANALYTIQUE”

10^ -12%

DEPZON_3

DX

MIN

0.75

“ANALYTIQUE”

10^ -12%

MAX

0.75

“ANALYTIQUE”

10^ -12%

DY

MIN

0

“ANALYTIQUE”

10^ -12%

MAX

0

“ANALYTIQUE”

10^ -12%

DEPZON_4

DX

MIN

0.75

“ANALYTIQUE”

10^ -12%

MAX

0.75

“ANALYTIQUE”

10^ -12%

DY

MIN

0

“ANALYTIQUE”

10^ -12%

MAX

0

“ANALYTIQUE”

10^ -12%

Table 6.3-1

The deformation is represented in FIG. 6.4-a.

_images/10000000000001BA0000014FCDBFDF8BDBD5EDAC.jpg

Figure 6.4-a: Deformed structure.

We test the value of \({E}^{e}\) produced by the POST_ERREUR operator.

Identification

Reference type

Reference value

Ee

“ANALYTIQUE”

0

We test the value of \({\Vert u\Vert }_{{L}^{2}}\) produced by the POST_ERREUR operator.