ProductsAbaqus/StandardAbaqus/Explicit
Coupled temperature-displacement truss elements
Problem description
Model:
Length |
7.0 |
Area |
3.0 |
Centrifugal axis of rotation |
(0, 1, 0) through origin |
Coriolis axis of rotation |
(0, 0, 1) through origin (2D) |
|
(0, 1, 0) through origin (3D) |
Gravity load vector |
(0, −1, 0) |
Material:
Young's modulus |
30 × 106 |
Coefficient of thermal expansion |
0.0 |
Thermal conductivity |
3.77 × 10−5 |
Density |
82.9 |
Sink (bulk fluid) temperature |
75.0 |
Absolute zero temperature |
−460.0 |
Initial conditions
Initial velocity |
ALL, 1, 5.0 |
|
ALL, 2, 2.0 |
Results and discussion
The calculated reactions are in agreement with the applied loads.
Coupled temperature-displacement plane stress, plane strain and generalized plane strain elements
Problem description
Model:
Square dimensions |
7 × 7 |
Thickness |
1.0 |
Centrifugal axis of rotation |
(0, 1, 0) through origin |
Coriolis axis of rotation |
(0, 0, 1) through origin |
Gravity load vector |
(0, −1, 0) |
Material:
Young's modulus |
30 × 106 |
Poisson's ratio |
0.3 |
Coefficient of thermal expansion |
0.0 |
Thermal conductivity |
3.77 × 10−5 |
Density |
82.9 |
Sink (bulk fluid) temperature |
75.0 |
Absolute zero temperature |
−460.0 |
Initial conditions
Initial velocity |
ALL, 1, 10 |
|
ALL, 2, 5 |
Hydrostatic pressure datum |
3.0 |
Hydrostatic pressure elevation |
0.0 |
Results and discussion
The calculated reactions are in agreement with the applied loads.
Coupled temperature-displacement axisymmetric solid elements
Problem description
Model:
Planar dimensions |
7 × 7 |
Inside radius |
1.0 |
Centrifugal axis of rotation |
(0, 1, 0) through origin |
Gravity load vector |
(0, −1, 0) |
Mesh:
Linear elements |
2 elements in radial direction |
Quadratic elements |
1 element in radial direction |
Material:
Young's modulus |
30 × 106 |
Poisson's ratio |
0.3 |
Coefficient of thermal expansion |
0.0 |
Thermal conductivity |
3.77 × 10−5 |
Density |
82.9 |
Sink (bulk fluid) temperature |
75.0 |
Absolute zero temperature |
−460.0 |
Initial conditions
Hydrostatic pressure datum |
3.0 |
Hydrostatic pressure elevation |
0.0 |
Results and discussion
The calculated reactions are in agreement with the applied loads.
Coupled temperature-displacement three-dimensional elements
Problem description
Model:
Cubic dimensions |
7 × 7 × 7 |
Centrifugal axis of rotation |
(0, 1, 0) through (−1000, 3.5, −3.5) |
Gravity load vector |
(1, 2, 3) |
Material:
Young's modulus |
30 × 106 |
Poisson's ratio |
0.3 |
Coefficient of thermal expansion |
0.0 |
Thermal conductivity |
3.77 × 10−5 |
Density |
82.9 |
Sink (bulk fluid) temperature |
75.0 |
Absolute zero temperature |
−460.0 |
Initial conditions
Hydrostatic pressure datum |
0.0 |
Hydrostatic pressure elevation |
−7.0 |
Results and discussion
The calculated reactions are in agreement with the applied loads.
Coupled temperature-displacement axisymmetric shell element
Problem description
Model:
Length |
10.0 |
Radius |
5.0 |
Thickness |
0.5 |
Centrifugal axis of rotation |
(0, 1, 0) through origin |
Gravity load vector |
(0, 1, 0) |
Material:
Young's modulus |
3 × 106 |
Poisson's ratio |
0.3 |
Thermal conductivity |
3.77 × 10−5 |
Density |
82.9 |
Sink (bulk fluid) temperature |
75.0 |
Absolute zero temperature |
−460.0 |
Initial conditions
Hydrostatic pressure datum |
7.0 |
Hydrostatic pressure elevation |
0.0 |
Results and discussion
The calculated reactions are in agreement with the applied loads.
Coupled temperature-displacement general shell element
Problem description
Model:
Planar dimensions |
7 × 7 |
Thickness |
2.0 |
Centrifugal and Coriolis axes of rotation |
(0, 1, 0) through origin |
Gravity load vector |
(0, 1, 0) |
Material:
Young's modulus |
3 × 106 |
Poisson's ratio |
0.3 |
Thermal conductivity |
3.77 × 10−5 |
Density |
82.9 |
Sink (bulk fluid) temperature |
75.0 |
Absolute zero temperature |
−460.0 |
Initial conditions
Hydrostatic pressure datum |
7.0 |
Hydrostatic pressure elevation |
0.0 |
Results and discussion
The calculated reactions are in agreement with the applied loads.
Coupled temperature-displacement axisymmetric twist elements
Problem description
Model:
Planar dimensions |
7 × 7 |
Inside radius |
1.0 |
Centrifugal axis of rotation |
(0, 1, 0) through origin |
Gravity load vector |
(0, −1, 0) |
Mesh:
Linear elements |
2 elements in radial direction |
Quadratic elements |
1 element in radial direction |
Material:
Young's modulus |
30 × 106 |
Poisson's ratio |
0.3 |
Coefficient of thermal expansion |
0.0 |
Thermal conductivity |
3.77 × 10−5 |
Density |
82.9 |
Sink (bulk fluid) temperature |
75.0 |
Absolute zero temperature |
−460.0 |
Initial conditions
Hydrostatic pressure datum |
3.0 |
Hydrostatic pressure elevation |
0.0 |
Results and discussion
The calculated reactions are in agreement with the applied loads.
Coupled temperature-displacement continuum shell elements
Problem description
Model:
Cubic dimensions |
7 × 7 × 7 |
Centrifugal axis of rotation |
(0, 1, 0) through (−1000, 3.5, −3.5) |
Gravity load vector |
(1, 2, 3) |
Material:
Young's modulus |
30 × 106 |
Poisson's ratio |
0.3 |
Coefficient of thermal expansion |
0.0 |
Thermal conductivity |
3.77 × 10−5 |
Density |
82.9 |
Sink (bulk fluid) temperature |
75.0 |
Absolute zero temperature |
−460.0 |
Initial conditions
Hydrostatic pressure datum |
0.0 |
Hydrostatic pressure elevation |
−7.0 |
Results and discussion
The calculated reactions are in agreement with the applied loads.
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