abaqus-static-analysis
Complete workflow for static structural analysis. Use when analyzing stress, displacement, or reaction forces under constant loads. For strength and stiffness evaluation.
Best use case
abaqus-static-analysis is best used when you need a repeatable AI agent workflow instead of a one-off prompt.
Complete workflow for static structural analysis. Use when analyzing stress, displacement, or reaction forces under constant loads. For strength and stiffness evaluation.
Teams using abaqus-static-analysis should expect a more consistent output, faster repeated execution, less prompt rewriting.
When to use this skill
- You want a reusable workflow that can be run more than once with consistent structure.
When not to use this skill
- You only need a quick one-off answer and do not need a reusable workflow.
- You cannot install or maintain the underlying files, dependencies, or repository context.
Installation
Claude Code / Cursor / Codex
Manual Installation
- Download SKILL.md from GitHub
- Place it in
.claude/skills/abaqus-static-analysis/SKILL.mdinside your project - Restart your AI agent — it will auto-discover the skill
How abaqus-static-analysis Compares
| Feature / Agent | abaqus-static-analysis | Standard Approach |
|---|---|---|
| Platform Support | Not specified | Limited / Varies |
| Context Awareness | High | Baseline |
| Installation Complexity | Unknown | N/A |
Frequently Asked Questions
What does this skill do?
Complete workflow for static structural analysis. Use when analyzing stress, displacement, or reaction forces under constant loads. For strength and stiffness evaluation.
Where can I find the source code?
You can find the source code on GitHub using the link provided at the top of the page.
SKILL.md Source
# Abaqus Static Analysis Workflow Complete workflow for static structural analysis - stress, displacement, and reaction forces under constant loads. ## When to Use This Skill **Route here when user mentions:** - "stress analysis", "structural analysis" - "how much will it deflect", "displacement" - "is this strong enough", "strength check" - "factor of safety", "safety factor" - "reaction forces", "support loads" - "simulate a load on this part" **Route elsewhere:** - Time-varying loads, impact, vibration → `/abaqus-dynamic-analysis` - Natural frequencies, resonance → `/abaqus-modal-analysis` - Temperature effects, thermal stress → `/abaqus-coupled-analysis` - Heat transfer only → `/abaqus-thermal-analysis` - Parts touching, friction → `/abaqus-contact-analysis` ## Workflow Steps Execute these skills in order: | Step | Skill | Purpose | |------|-------|---------| | 1 | `/abaqus-geometry` | Create part and assembly | | 2 | `/abaqus-material` | Define material properties | | 3 | `/abaqus-mesh` | Generate finite element mesh | | 4 | `/abaqus-bc` | Apply supports and constraints | | 5 | `/abaqus-load` | Apply forces and pressures | | 6 | `/abaqus-step` | Configure analysis step (optional - default is fine) | | 7 | `/abaqus-job` | Run the analysis | | 8 | `/abaqus-odb` | Extract results | ## What to Ask User ### Required Information | Input | What to Ask | |-------|-------------| | Geometry | "What are the dimensions? (e.g., 100x50x20 mm)" | | Material | "What material? (Steel, Aluminum, or custom E/v)" | | Supports | "How is it supported? (fixed face, pinned points, rollers)" | | Loads | "What loads? (force magnitude, location, direction)" | ### Optional (Has Defaults) | Input | Default | Ask If | |-------|---------|--------| | Mesh size | Auto-calculated | Stress concentrations present | | Element type | C3D8R | Complex curved geometry | | Nonlinear | OFF | Large deformation expected | ## Key Decisions ### Linear vs Nonlinear Analysis | Condition | Setting | When | |-----------|---------|------| | Small deformation, linear material | nlgeom=OFF | Displacements < 1% of part size | | Large deformation or rotation | nlgeom=ON | Thin structures, rubber, cables | | Yielding expected | nlgeom=ON + Plasticity | Stress > yield strength | **Default:** Start with linear. Switch to nonlinear if convergence issues or large deformation. ### What Results to Extract | User Goal | Output Variables | Acceptance Criteria | |-----------|-----------------|---------------------| | Strength assessment | S (stress), MISES | MISES < yield stress | | Stiffness check | U (displacement) | Max deflection acceptable | | Support sizing | RF (reaction force) | Reactions match applied loads | ## Validation Checkpoints ### After Each Step | Step | What to Verify | |------|----------------| | Geometry | Part has cells, no error messages | | Material | Section assigned to all cells | | Mesh | Node count OK (Learning Edition: <=1000) | | BCs | At least one fixed constraint exists | | Loads | Applied to correct surface/point | | Job | Completes without errors in .sta file | ### Results Sanity Checks | Check | Expected | |-------|----------| | Reaction force sum | Approximately equals applied loads | | Displacement magnitude | Physically reasonable | | Stress pattern | Follows logical load path | | Max stress location | At expected concentration points | ## Troubleshooting | Error | Cause | Solution | |-------|-------|----------| | "Zero pivot" | Rigid body motion | Add more BCs to constrain all 6 DOFs | | "Negative eigenvalue" | Buckling or instability | Check BCs, may need stabilization | | "Too many increments" | Load too large | Reduce load or use more increments | | "Equilibrium not achieved" | Convergence failure | Try smaller initial increment | | "Memory exceeded" | Mesh too fine | Increase element size | ## Feedback Loops - **Mesh fails:** Return to geometry, add partitions or simplify - **Zero pivot error:** Return to BCs, ensure all rigid body modes constrained - **Unreasonable results:** Verify material properties, check load direction/sign - **Stress too high:** Either design issue (expected) or incorrect BC/load setup ## Code Patterns For API syntax and code examples, see: - [Common Patterns](references/common-patterns.md) - [Troubleshooting Guide](references/troubleshooting.md)
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abaqus-step
Define analysis steps and procedures. Use when user mentions static analysis, dynamic step, frequency analysis, heat transfer step, or asks about analysis type, time increments, or nlgeom.
abaqus-shape-optimization
Optimize fillet/notch geometry. Use when user mentions stress concentration, fillet optimization, reshaping surfaces, or reducing peak stress. Moves surfaces only.
abaqus-output
Configure output requests - field outputs, history outputs. Use when user asks what results to save, output variables, reduce output file size, or history output.
abaqus-optimization
Configure Tosca optimization. Use when user mentions design response, objective function, optimization constraint, or SIMP penalty. Base module for topology/shape optimization.
abaqus-odb
Read analysis results. Use when user asks about maximum stress, extracting displacements, reaction forces, or exporting results. Post-processes ODB files.
abaqus-modal-analysis
Complete workflow for modal/frequency analysis - extract natural frequencies and mode shapes. Use for vibration analysis and resonance avoidance.
abaqus-mesh
Generate finite element meshes. Use when user mentions mesh, elements, nodes, refine mesh, mesh size, or asks about element types like C3D8R, C3D10, S4R.