Products: Abaqus/Standard Abaqus/Explicit
This section demonstrates the use of distributions to model spatially varying element properties.
The analyses in this section demonstrate how distributions can be used to define spatially varying element properties in shells. The geometry in each test is a flat plate modeled with either 9 quadrilateral shell elements or 18 triangular shell elements. In most test cases each shell element is assigned a different thickness, offset, and material orientation using distributions. In some cases both distributions and nodal thicknesses are used to define the shell thicknesses. A linear elastic orthotropic material is used in each case. All the test cases in this section were verified by creating equivalent reference models using multiple section assignments to define the shell thicknesses, offsets, and material properties. Some of these reference models are included.
Loading:
The multistep Abaqus/Standard analysis performed on each model consists of the following:
Step 1: A frequency analysis.
Step 2: A steady-state dynamic analysis with modal damping and nodal loads.
Step 3: A modal dynamic analysis with modal damping and nodal loads.
Step 4: A direct steady-state dynamic analysis with modal damping and nodal loads.
Step 5: A subspace projection steady-state dynamic analysis with nodal loads.
Step 6: A random response analysis with nodal loads.
Step 7: A response spectrum analysis.
Step 8: A geometrically nonlinear static analysis with displacement boundary conditions.
Step 9: A load case static analysis using distributed body loads, gravity loads, and centrifugal loads.
A single geometrically nonlinear dynamic step with displacement boundary conditions is used for the models testing Abaqus/Explicit.
Multistep analysis using S3R elements and a homogeneous general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S3R elements, a homogeneous general shell section definition, and nodal thicknesses. Distributions are used to define shell thicknesses and material orientations.
Multistep analysis using S3R elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S3R elements with a homogeneous shell section definition that is integrated during the analysis and nodal thicknesses. Distributions are used to define shell thicknesses and material orientations.
Multistep analysis using S4 elements and a homogeneous general shell section. Distributions are used to define shell thicknesses, offsets, and material orientations.
Reference solution for distrib_multistep_s4_gs_std.inp using multiple homogeneous shell section definitions to define varying shell thicknesses, offsets, and material orientations.
Multistep analysis using S4 elements, a homogeneous general shell section definition, and nodal thicknesses. Distributions are used to define shell thicknesses and material orientations.
Multistep analysis using S4 elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Restart analysis for distrib_multistep_s4_std.inp.
Multistep analysis using S4 elements with a homogeneous shell section definition that is integrated during the analysis and nodal thicknesses. Distributions are used to define shell thicknesses and material orientations.
Reference solution for distrib_multistep_s4_nt_std.inp using multiple homogeneous shell section definitions and nodal thicknesses to define varying shell thicknesses, offsets, and material orientations.
Multistep analysis using S4 elements, a homogeneous general shell section definition, and nodal thicknesses. Distributions are used to define offsets and material orientations.
Multistep analysis using S4 elements with a homogeneous shell section definition that is integrated during the analysis and nodal thicknesses. Distributions are used to define offsets and material orientations.
Multistep analysis using S4 elements with a homogeneous general shell section definition. The section stiffness is specified directly. Distributions are used to define shell section stiffness and material orientations. The distributions for the section stiffnesses and material orientations are read from separate input files distrib_s4_stiff_in.inp and distrib_s4_orient_in.inp.
Input file for section stiffness distribution for distrib_multistep_s4_st_std.inp.
Input file for material orientation distribution for distrib_multistep_s4_st_std.inp.
Multistep analysis using S4R elements and a homogeneous general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S4R elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S4R elements with a homogeneous shell section definition that is integrated during the analysis and a hyperelastic material. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S4R5 elements and a homogeneous general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S4R5 elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S8R elements and a homogeneous general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S8R elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S8R5 elements and a homogeneous general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S8R5 elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S9R5 elements and a homogeneous general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S9R5 elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using SC6R elements and a homogeneous general shell section definition. Distributions are used to define material orientations.
Multistep analysis using SC6R elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define material orientations.
Multistep analysis using SC8R elements and a homogeneous general shell section definition. Distributions are used to define material orientations.
Multistep analysis using SC8R elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define material orientations.
Multistep analysis using STRI3 elements and a homogeneous general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using STRI3 elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using STRI65 elements and a homogeneous general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using STRI65 elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using SAX1 elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses and offsets.
Multistep analysis using SAX2 elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses and offsets.
Multistep analysis using SAX2T elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses and offsets.
Multistep analysis using SAXA12 elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using SAXA22 elements with a homogeneous shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S3R elements and a composite general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S3R elements, a composite general shell section definition, and nodal thicknesses. Distributions are used to define shell thicknesses and material orientations.
Multistep analysis using S3R elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S3R elements with a composite shell section definition that is integrated during the analysis and nodal thicknesses. Distributions are used to define shell thicknesses and material orientations.
Multistep analysis using S3R elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, material orientations, composite layer thicknesses, and composite layer angles.
Multistep analysis using S4 elements and a composite general shell section. Distributions are used to define shell thicknesses, offsets, and material orientations.
Reference solution for distrib_multistep_comp_s4_gs_std.inp using multiple composite shell section definitions to define varying shell thicknesses, offsets, and material orientations.
Multistep analysis using S4 elements, a composite general shell section definition, and nodal thicknesses. Distributions are used to define shell thicknesses and material orientations.
Multistep analysis using S4 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Restart analysis for distrib_multistep_comp_s4_std.inp.
Multistep analysis using S4 elements with a composite shell section definition that is integrated during the analysis and nodal thicknesses. Distributions are used to define shell thicknesses and material orientations.
Reference solution for distrib_multistep_comp_s4_nt_std.inp using multiple composite shell section definitions and nodal thicknesses to define varying shell thicknesses, offsets, and material orientations.
Multistep analysis using S4 elements, a composite general shell section definition, and nodal thicknesses. Distributions are used to define offsets and material orientations.
Multistep analysis using S4 elements with a composite shell section definition that is integrated during the analysis and nodal thicknesses. Distributions are used to define offsets and material orientations.
Multistep analysis using S4 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, material orientations, composite layer thicknesses, and composite layer angles.
Multistep analysis using S4 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, material orientations, composite layer thicknesses, and composite layer angles.
Multistep analysis using S4 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, material orientations, composite layer thicknesses, and composite layer angles.
Multistep analysis using S4R elements and a composite general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S4 elements with a composite general shell section definition. Distributions are used to define shell thicknesses, offsets, material orientations, composite layer thicknesses, and composite layer angles.
Multistep analysis using S4 elements with a composite general shell section definition. Distributions are used to define shell thicknesses, offsets, material orientations, composite layer thicknesses, and composite layer angles.
Multistep analysis using S4 elements with a composite general shell section definition. Distributions are used to define shell thicknesses, offsets, material orientations, composite layer thicknesses, and composite layer angles.
Multistep analysis using S4R elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S4R elements with a composite shell section definition that is integrated during the analysis and a hyperelastic material. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S4R5 elements and a composite general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S4R5 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S8R elements and a composite general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S8R elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S8R5 elements and a composite general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S8R5 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, material orientations, composite layer thicknesses, and composite layer angles.
Multistep analysis using S9R5 elements and a composite general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using S9R5 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, material orientations, composite layer thicknesses, and composite layer angles.
Multistep analysis using SC6R elements and a composite general shell section definition. Distributions are used to define material orientations.
Multistep analysis using SC6R elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define material orientations.
Multistep analysis using SC8R elements and a composite general shell section definition. Distributions are used to define material orientations.
Multistep analysis using SC8R elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define material orientations.
Multistep analysis using SC8R elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define material orientations and composite layer orientation angles.
Multistep analysis using SC8R elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define material orientations and composite layer orientation angles.
Multistep analysis using SC8R elements with a composite general shell section definition. Distributions are used to define material orientations and composite layer orientation angles.
Multistep analysis using SC8R elements with a composite general shell section definition. Distributions are used to define material orientations and composite layer orientation angles.
Multistep analysis using STRI3 elements and a composite general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using STRI3 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, material orientations, composite layer thicknesses, and composite layer angles.
Multistep analysis using STRI65 elements and a composite general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using STRI65 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using SAXA12 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Multistep analysis using SAXA22 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, material orientations, composite layer thicknesses, and composite layer angles.
Analysis using S4 elements with a shell section definition that is integrated during the analysis and nodal thicknesses. Distributions are used to define shell thicknesses and material orientations.
Reference solution for distrib_s4_nt_xpl.inp using multiple shell section definitions and nodal thicknesses to define varying shell thicknesses and material orientations.
Analysis using S4R elements with a shell section definition that is integrated during the analysis and nodal thicknesses. Distributions are used to define shell thicknesses and material orientations.
Reference solution for distrib_s4r_nt_xpl.inp using multiple shell section definitions and nodal thicknesses to define varying shell thicknesses and material orientations.
Multistep analysis using S4 elements with a composite shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses and material orientations.
Reference solution for distrib_comp_s4_nt_xpl.inp using multiple composite shell section definitions and nodal thicknesses to define varying shell thicknesses and material orientations.
CPS3 CPE3 CPS4 CPS4R CPE4 CPE4H CPE4I CPE4R
CPS6 CPS6M CPE6 CPE6M CPS8 CPS8R CPE8 CPE8R
CAX3 CAX4 CAX4H CAX4I CAX4R CAX6 CAX6M CAX8 CAX8R
CGAX3 CGAX4 CGAX4H CGAX4R CGAX6 CGAX6M CGAX8 CGAX8R
The analyses in this section demonstrate how distributions can be used to define material orientations and material behavior on an element-by-element basis for continuum elements. The geometry in two-dimensional tests is a unit square modeled with either 9 quadrilateral or 18 triangular elements. The geometry in the three-dimensional tests is a unit cube with between 8 to 12 elements. In most test cases each solid element is assigned a different material orientation using a distribution. In some of the test cases distributions of material behaviors are used. All the test cases in this section were verified by creating equivalent reference models using multiple section assignments to define material orientations. Some of these reference models are included. In some cases the residual mode functionality is also tested.
Loading:
The multistep Abaqus/Standard analysis performed on each model consists of the following:
Step 1: A frequency analysis.
Step 2: A steady-state dynamic analysis with modal damping and nodal loads.
Step 3: A modal dynamic analysis with modal damping and nodal loads.
Step 4: A direct steady-state dynamic analysis with modal damping and nodal loads.
Step 5: A subspace projection steady-state dynamic analysis with nodal loads.
Step 6: A random response analysis with nodal loads.
Step 7: A response spectrum analysis.
Step 8: A geometrically nonlinear static analysis with displacement boundary conditions.
Step 9: A load case static analysis using distributed body loads, gravity loads, and centrifugal loads.
Only the eighth step above is used for the models testing Abaqus/Explicit.
Multistep analysis using C3D4 elements. Distributions are used to define material orientations. In addition, residual modes are activated in the frequency step for use in the subsequent modal procedures.
Multistep analysis using C3D6 elements. Distributions are used to define material orientations. In addition, residual modes are activated in the frequency step for use in the subsequent modal procedures.
Multistep analysis using C3D8 elements. Distributions are used to define material orientations and orthotropic elastic behavior. In addition, residual modes are activated in the frequency step for use in the subsequent modal procedures.
Multistep analysis using composite C3D8 elements. Distributions are used to define material orientations.
Multistep analysis using composite C3D8 elements. Distributions are used to define material orientations and composite layer orientation angles.
Multistep analysis using composite C3D8 elements. Distributions are used to define material orientations and composite layer orientation angles.
Multistep analysis using composite C3D8 elements. Distributions are used to define material orientations and composite layer orientation angles.
Multistep analysis using composite C3D8 elements. Distributions are used to define material orientations and composite layer orientation angles.
Multistep analysis using composite C3D8 elements. Distributions are used to define material orientations and composite layer orientation angles.
Multistep analysis using C3D10 elements. Distributions are used to define material orientations, orthotropic elastic behavior, and material density.
Multistep analysis using C3D10I elements. Distributions are used to define material orientations, orthotropic elastic behavior, and material density.
Reference solution for distrib_multistep_c3d10_std.inp using multiple solid section and material definitions to define varying material orientations and material behavior.
Reference solution for distrib_multistep_c3d10i_std.inp using multiple solid section and material definitions to define varying material orientations and material behavior.
Multistep analysis using C3D10M elements. Distributions are used to define material orientations and anisotropic elastic behavior. In addition, residual modes are activated in the frequency step for use in the subsequent modal procedures.
Multistep analysis using C3D15 elements. Distributions are used to define material orientations.
Multistep analysis using C3D20R elements. Distributions are used to define material orientations. In addition, residual modes are activated in the frequency step for use in the subsequent modal procedures.
Multistep analysis using composite C3D20R elements. Distributions are used to define material orientations.
Multistep analysis using composite C3D20R elements. Distributions are used to define material orientations.
Multistep analysis using CAX3 elements. Distributions are used to define material orientations.
Multistep analysis using CAX4 elements. Distributions are used to define material orientations.
Multistep analysis using CAX4H elements. Distributions are used to define material orientations.
Multistep analysis using CAX4I elements. Distributions are used to define material orientations. In addition, residual modes are activated in the frequency step for use in the subsequent modal procedures.
Multistep analysis using CAX4R elements. Distributions are used to define material orientations.
Multistep analysis using CAX6 elements. Distributions are used to define material orientations.
Multistep analysis using CAX6M elements. Distributions are used to define material orientations.
Multistep analysis using CAX8 elements. Distributions are used to define material orientations.
Multistep analysis using CAX8R elements. Distributions are used to define material orientations. In addition, residual modes are activated in the frequency step for use in the subsequent modal procedures.
Multistep analysis using CGAX3 elements. Distributions are used to define material orientations.
Multistep analysis using CGAX4 elements. Distributions are used to define material orientations.
Multistep analysis using CGAX4H elements. Distributions are used to define material orientations.
Multistep analysis using CGAX4R elements. Distributions are used to define material orientations.
Multistep analysis using CGAX6 elements. Distributions are used to define material orientations.
Multistep analysis using CGAX8 elements. Distributions are used to define material orientations.
Multistep analysis using CGAX8R elements. Distributions are used to define material orientations.
Multistep analysis using CPE3 elements. Distributions are used to define material orientations.
Multistep analysis using CPE4 elements. Distributions are used to define material orientations.
Multistep analysis using CPE4H elements. Distributions are used to define material orientations.
Multistep analysis using CPE4I elements. Distributions are used to define material orientations.
Multistep analysis using CPE4R elements. Distributions are used to define material orientations. In addition, residual modes are activated in the frequency step for use in the subsequent modal procedures.
Multistep analysis using CPE6 elements. Distributions are used to define material orientations.
Multistep analysis using CPE6M elements. Distributions are used to define material orientations.
Multistep analysis using CPE8 elements. Distributions are used to define material orientations, orthotropic elastic behavior (with engineering constants), and material density. In addition, residual modes are activated in the frequency step for use in the subsequent modal procedures.
Reference solution for distrib_multistep_cpe8_std.inp using multiple solid section definitions to define varying material orientations.
Multistep analysis using CPE8R elements. Distributions are used to define material orientations.
Multistep analysis using CPS3 elements. Distributions are used to define material orientations.
Multistep analysis using CPS4 elements. Distributions are used to define material orientations and lamina elastic behavior.
Multistep analysis using CPS4R elements. Distributions are used to define material orientations.
Multistep analysis using CPS6 elements. Distributions are used to define material orientations. In addition, residual modes are activated in the frequency step for use in the subsequent modal procedures.
Multistep analysis using CPS6M elements. Distributions are used to define material orientations.
Multistep analysis using CPS8 elements. Distributions are used to define material orientations.
Multistep analysis using CPS8R elements. Distributions are used to define material orientations. In addition, residual modes are activated in the frequency step for use in the subsequent modal procedures.
Analysis using C3D10M elements. Distributions are used to define material orientations.
Reference solution for distrib_c3d10m_xpl.inp using multiple solid section definitions to define varying material orientations.
The analyses in this section demonstrate that element properties defined with distributions can be transferred from one Abaqus/Standard analysis to another. All the test cases in this section were verified by creating equivalent reference models using multiple section assignments to define the shell thicknesses, offsets, and material properties. Some of these reference models are included.
Two geometrically nonlinear static steps using C3D8 elements. Distributions are used to define material orientations and orthotropic elastic behavior (using engineering constants).
Imports both elements in ss1_c3d8_ep.inp at the end of Step 1 with UPDATE=NO and STATE=NO. One new C3D8 element is defined.
Imports both elements in ss1_c3d8_ep.inp at the end of Step 1 with UPDATE=NO and STATE=YES. One new C3D8 element is defined.
Imports both elements in ss1_c3d8_ep.inp at the end of Step 1 with UPDATE=YES and STATE=NO. One new C3D8 element is defined.
Imports both elements in ss1_c3d8_ep.inp at the end of Step 1 with UPDATE=YES and STATE=YES. One new C3D8 element is defined.
Two geometrically nonlinear static steps using C3D8 elements. Distributions are used to define material orientations and orthotropic elastic behavior.
Imports both elements in ss1_c3d8_1_ep.inp at the end of Step 1 with UPDATE=NO and STATE=NO. One new C3D8 element is defined.
Imports both elements in ss1_c3d8_1_ep.inp at the end of Step 1 with UPDATE=NO and STATE=YES. One new C3D8 element is defined.
Imports both elements in ss1_c3d8_1_ep.inp at the end of Step 1 with UPDATE=YES and STATE=NO. One new C3D8 element is defined.
Imports both elements in ss1_c3d8_1_ep.inp at the end of Step 1 with UPDATE=YES and STATE=YES. One new C3D8 element is defined.
Two geometrically nonlinear static steps using C3D8 elements. Distributions are used to define material orientations and anisotropic elastic behavior.
Imports both elements in ss1_c3d8_2_ep.inp at the end of Step 1 with UPDATE=NO and STATE=NO. One new C3D8 element is defined.
Imports both elements in ss1_c3d8_2_ep.inp at the end of Step 1 with UPDATE=NO and STATE=YES. One new C3D8 element is defined.
Imports both elements in ss1_c3d8_2_ep.inp at the end of Step 1 with UPDATE=YES and STATE=NO. One new C3D8 element is defined.
Imports both elements in ss1_c3d8_2_ep.inp at the end of Step 1 with UPDATE=YES and STATE=YES. One new C3D8 element is defined.
Two geometrically nonlinear static steps using CPE4 elements. Distributions are used to define material orientations and isotropic elastic behavior.
Imports both elements in ss1_cpe4_ep.inp at the end of Step 1 with UPDATE=NO and STATE=NO. One new CPE4 element is defined.
Imports both elements in ss1_cpe4_ep.inp at the end of Step 1 with UPDATE=NO and STATE=YES. One new CPE4 element is defined.
Imports both elements in ss1_cpe4_ep.inp at the end of Step 1 with UPDATE=YES and STATE=NO. One new CPE4 element is defined.
Imports both elements in ss1_cps4_ep.inp at the end of Step 1 with UPDATE=YES and STATE=YES. One new CPE4 element is defined.
Two geometrically nonlinear static steps using CPS4 elements. Distributions are used to define material orientations and lamina elastic behavior.
Imports both elements in ss1_cps4_ep.inp at the end of Step 1 with UPDATE=NO and STATE=NO. One new CPS4 element is defined.
Imports both elements in ss1_cps4_ep.inp at the end of Step 1 with UPDATE=NO and STATE=YES. One new CPS4 element is defined.
Imports both elements in ss1_cps4_ep.inp at the end of Step 1 with UPDATE=YES and STATE=NO. One new CPS4 element is defined.
Imports both elements in ss1_cps4_ep.inp at the end of Step 1 with UPDATE=YES and STATE=YES. One new CPS4 element is defined.
Two geometrically nonlinear static steps using S3R elements with a shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Imports both elements in ss1_s3r_ep.inp at the end of Step 1 with UPDATE=NO and STATE=NO. One new S3R element is defined.
Imports both elements in ss1_s3r_ep.inp at the end of Step 1 with UPDATE=NO and STATE=YES. One new S3R element is defined.
Imports both elements in ss1_s3r_ep.inp at the end of Step 1 with UPDATE=YES and STATE=NO. One new S3R element is defined.
Imports both elements in ss1_s3r_ep.inp at the end of Step 1 with UPDATE=YES and STATE=YES. One new S3R element is defined.
Two geometrically nonlinear static steps using S4R elements with a shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses, offsets, and material orientations.
Imports both elements in ss1_s4r_ep.inp at the end of Step 1 with UPDATE=NO and STATE=NO. One new S4R element is defined.
Imports both elements in ss1_s4r_ep.inp at the end of Step 1 with UPDATE=NO and STATE=YES. One new S4R element is defined.
Imports both elements in ss1_s4r_ep.inp at the end of Step 1 with UPDATE=YES and STATE=NO. One new S4R element is defined.
Imports both elements in ss1_s4r_ep.inp at the end of Step 1 with UPDATE=YES and STATE=YES. One new S4R element is defined.
Reference solution for ss1_s4r_ep.inp using multiple shell section definitions to define varying shell thicknesses, offsets, and material orientations.
Reference solution for ss2_s4r_ep_n_n.inp.
Reference solution for ss2_s4r_ep_n_y.inp.
Reference solution for ss2_s4r_ep_y_n.inp.
Reference solution for ss2_s4r_ep_y_y.inp.
Two geometrically nonlinear static steps using S4R elements with a general shell section definition. Distributions are used to define shell thicknesses, offsets, and material orientations.
Imports both elements in ss1_s4r_ep_gs.inp at the end of Step 1 with UPDATE=NO and STATE=NO. One new S4R element is defined.
Imports both elements in ss1_s4r_ep_gs.inp at the end of Step 1 with UPDATE=NO and STATE=YES. One new S4R element is defined.
Imports both elements in ss1_s4r_ep_gs.inp at the end of Step 1 with UPDATE=YES and STATE=NO. One new S4R element is defined.
Imports both elements in ss1_s4r_ep_gs.inp at the end of Step 1 with UPDATE=YES and STATE=YES. One new S4R element is defined.
Two geometrically nonlinear static steps using S4R elements with a general shell section definition. The section stiffness is specified directly. Distributions are used to define shell section stiffness and material orientations.
Imports both elements in ss1_s4r_ep_gs_st.inp at the end of Step 1 with UPDATE=NO and STATE=NO. One new S4R element is defined.
Imports both elements in ss1_s4r_ep_gs_st.inp at the end of Step 1 with UPDATE=NO and STATE=YES. One new S4R element is defined.
Imports both elements in ss1_s4r_ep_gs_st.inp at the end of Step 1 with UPDATE=YES and STATE=NO. One new S4R element is defined.
Imports both elements in ss1_s4r_ep_gs_st.inp at the end of Step 1 with UPDATE=YES and STATE=YES. One new S4R element is defined.
Two geometrically nonlinear static steps using SAX1 elements with a shell section definition that is integrated during the analysis. Distributions are used to define shell thicknesses and offsets.
Imports both elements in ss1_sax1_ep.inp at the end of Step 1 with UPDATE=NO and STATE=NO. One new SAX1 element is defined.
Imports both elements in ss1_sax1_ep.inp at the end of Step 1 with UPDATE=NO and STATE=YES. One new SAX1 element is defined.
Imports both elements in ss1_sax1_ep.inp at the end of Step 1 with UPDATE=YES and STATE=NO. One new SAX1 element is defined.
Imports both elements in ss1_sax1_ep.inp at the end of Step 1 with UPDATE=YES and STATE=YES. One new SAX1 element is defined.
Reference solution for ss1_sax1_ep.inp using multiple shell section definitions to define varying shell thicknesses and offsets.
Reference solution for ss2_sax1_ep_n_n.inp.
Reference solution for ss2_sax1_ep_n_y.inp.
Reference solution for ss2_sax1_ep_y_n.inp.
Reference solution for ss2_sax1_ep_y_y.inp.