10. H modeling

10.1. Characteristics of modeling

It is the same modeling as the G modeling.

10.2. Characteristics of the mesh

The mesh, identical to that of modeling D, is represented in FIG. 6.2-a.

10.3. Tested sizes and results

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

Identification		Reference	0
DEPZON_1	DX- \({u}_{x}\)	MIN
		MAX	0
	DY- \({u}_{y}\)	MIN	0
		MAX	0
	DZ- \({u}_{z}\)	MIN	0
		MAX	0
DEPZON_2	DX- \({u}_{x}\)	MIN	0
		MAX	0
	DY- \({u}_{y}\)	MIN	0
		MAX	0
	DZ- \({u}_{z}\)	MIN	0
		MAX	0
DEPZON_3	DX- \({u}_{x}\)	MIN	0
		MAX	0
	DY- \({u}_{y}\)	MIN	0
		MAX	0
	DZ- \({u}_{z}\)	MIN	0
		MAX	0
DEPZON_4	DX- \({u}_{x}\)	MIN	0
		MAX	0
	DY- \({u}_{y}\)	MIN	0
		MAX	0
	DZ- \({u}_{z}\)	MIN	0
		MAX	0

Table 10.3-1

The deformation is represented in FIG. 10.4-a.

Figure 10.4-a: Deformed structure (Exaggeration 10).

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

Identification	Reference type	Reference value
Ee	“ANALYTIQUE”	1,825106

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

10.4. notes

The remarks are identical to those formulated for modeling E.