28. Z modeling#

This test is exactly the same as modeling A. It allows you to test code coupling in MPI by replacing the thermo-mechanical chain by a weak coupling (without dependence of the thermal on the displacement).

28.1. Characteristics of modeling#

QUAD4 - Axisymmetric

_images/1000020000000176000001AB65655726BCBC4D18.png

28.2. Characteristics of the mesh#

Number of knots: 4

Number of meshes and types: 1 QUAD4, 4 SEG2

28.3. Tested sizes and results#

Variables

Moments \((s)\)

Reference

\({\varepsilon }_{\mathrm{rr}}={\varepsilon }_{\theta \theta }\)

\(t=66.666\)

8.6666 10—4

\(t=80\)

1.1000 10—3

\(t=90\)

1.2750 10—3

\(p\)

\(t=66.666\)

0

\(t=80\)

3.0000 10—4

\(t=90\)

5.2500 10—4

\({\sigma }_{\mathrm{zz}}\) \((\mathrm{MPa})\)

\(t=66.666\)

—133.333

\(t=80\)

—100,000

\(t=90\)

—75,000

ENEL_ELGA \((J)\)

\(t=66.666\)

4.444. 10-2

ENER_TOTALE \((J)\)

\(t=66.666\)

0.2666

ENER_POT \((J)\)

\(t=66.666\)

0.2666

28.4. Orthotropy (COMPORTEMENT)#

Variables

Moments \((s)\)

Reference

\({\varepsilon }_{\mathrm{rr}}={\varepsilon }_{\theta \theta }\)

\(t=66.666\)

8.6666 10—4

\(t=80\)

1.04 10—3

\(t=90\)

1.17 10—3

\({\sigma }_{\mathrm{zz}}\) \((\mathrm{MPa})\)

\(t=66.666\)

—133.333

\(t=80\)

—160,000

\(t=90\)

—180,000