Graitec Advance Design — Tutorial
Graitec Advance Design is a professional Finite Element Method (FEM)
software used by structural engineers to model, analyze, and design steel, concrete, and timber structures. Generating a technical report is the final critical step in the design workflow, providing the documented proof of structural safety and code compliance. 🏗️ Phase 1: Project Setup & Modeling
Before generating a report, the structural model must be correctly defined. Workspace Configuration:
Launch the software and set the project parameters (e.g., 3D workspace, bending rigid structure) in the Project Settings dialogue box Material & Section Definition:
Define materials (e.g., C25/30 concrete or steel grades) and cross-sections for beams, columns, and slabs. CAD Tools: Use commands like to build the geometry. ⚡ Phase 2: Analysis & Optimization A report is only as good as the underlying data. Advance Design Tutorial - Graitec
Graitec Advance Design Tutorial: A Comprehensive Guide to Structural Analysis and Design
Graitec Advance Design is a powerful software solution for structural analysis and design, widely used in the construction industry. The software offers a range of advanced features and tools that enable engineers and architects to design and analyze complex structures with ease. In this article, we will provide a comprehensive Graitec Advance Design tutorial, covering the basics of the software, its features, and a step-by-step guide to using it for structural analysis and design. graitec advance design tutorial
Introduction to Graitec Advance Design
Graitec Advance Design is a finite element analysis software that allows users to design and analyze various types of structures, including buildings, bridges, and industrial facilities. The software is developed by Graitec, a leading provider of software solutions for the construction industry. Advance Design offers a user-friendly interface, advanced analysis capabilities, and a comprehensive library of design codes and standards.
Key Features of Graitec Advance Design
Before we dive into the tutorial, let's take a look at some of the key features of Graitec Advance Design:
- Finite Element Analysis: Advance Design offers advanced finite element analysis capabilities, allowing users to analyze complex structures under various loads and conditions.
- Design Codes and Standards: The software includes a comprehensive library of design codes and standards, including Eurocode, American ASCE, and Australian Standards.
- Automatic Design and Optimization: Advance Design offers automatic design and optimization features, enabling users to quickly and easily design structures that meet specific requirements.
- Dynamic Analysis: The software allows users to perform dynamic analysis, including modal analysis, response spectrum analysis, and time-history analysis.
- Results Interpretation: Advance Design provides a range of tools for interpreting results, including graphical displays, reports, and animations.
Graitec Advance Design Tutorial
In this tutorial, we will guide you through the process of designing a simple building structure using Graitec Advance Design. Graitec Advance Design is a professional Finite Element
Part 5: Meshing and Analysis (The Engine)
You have a model; now you need a mesh.
Step 3: Drawing Columns
- Select Column from the ribbon.
- In the properties palette (usually on the left), set the section to Rectangle: 400x400 mm.
- Set material to C30/37.
- Hover over the grid intersections. Click to place.
- Tip: Use the "Story" dropdown at the bottom to copy these columns to all 5 stories instantly.
Key tutorial sections (recommended sequence)
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Project & environment setup
- Create a new project; set units, material libraries, and code (Eurocode, AISC, etc.).
- Configure mesh settings and analysis parameters.
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Geometry modelling
- Draw beams, columns, slabs, plates and walls using the built-in tools or import from CAD/IFC.
- Organize the model with levels, groups, and layers.
- Define supports and boundary conditions.
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Materials and sections
- Assign materials (concrete, steel) with properties and design values.
- Create or assign cross-sections (I-sections, rectangular, hollow, shell thickness).
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Loads and load cases
- Apply dead, live, wind, seismic, temperature and moving loads.
- Define load combinations (code-based or custom) and envelope analyses.
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Meshing & element types
- Generate and refine finite element mesh for beams, plates and shells.
- Choose appropriate element types (beam, shell, solid) and mesh density for accuracy.
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Analysis settings
- Run linear static, nonlinear, dynamic or modal analyses as required.
- Set solver options and convergence criteria.
- Check model diagnostics (connectivity, rigid links, incompatible DOFs).
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Design checks & code verification
- Perform steel and concrete design checks (section, buckling, RC reinforcement).
- Review utilization ratios, required reinforcement, and design reports.
- Adjust geometry, sections or reinforcement and re-run checks.
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Results evaluation
- Visualize internal forces, deflections, stress contours and reaction forces.
- Use diagrams, iso-contours, tables and result filters.
- Export results snapshots, reports and drawings.
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Detailing & documentation
- Generate design reports, reinforcement drawings, and calculation notes.
- Export to DWG/DXF, IFC or BIM links for downstream workflows.
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Common troubleshooting tips
- Resolve singularities by checking supports and connectivity.
- Improve mesh where results show high gradients.
- Verify load combinations and units when unexpected results appear.
2. Recommended Tutorial Path (by skill level)
Step 4: Drawing Beams
- Select Beam.
- Section: 300x500 mm.
- Draw from column to column along the X and Y directions.
- The "Continuous Beam" trick: Hold
Ctrlwhile selecting multiple grid lines to draw continuous beams in one click, rather than segment by segment.
✅ Beginner – Simple 2D Portal Frame (Steel)
Goal: Run a linear static analysis and check a steel beam. Finite Element Analysis : Advance Design offers advanced
- Start a new project → set units (kN, m), Eurocode (EN 1990/1991/1993)
- Create grid (optional) → draw columns + beam using Line tool
- Assign sections (IPE 300, HEA 200) from the steel library
- Define supports – pinned base at column feet
- Apply loads – vertical load (UDL on beam) + self-weight
- Generate mesh (for beams → line elements, default OK)
- Run analysis (F9)
- Check results – bending moment diagram, deflection
- Design (steel beam module) → utilization ratio, buckling checks
📁 Graitec provides a “Getting Started” PDF with this exact example.
Part 6: Interpreting Results (Post-Processing)
This is where Graitec shines. You do not need to export to Excel.