- Design offshore wind turbines
- Analyze wave and wind loading
- Perform coupled or uncoupled analysis
- Predict stress cycles with fatigue analysis
- Ensure offshore code compliance
MOSES Wind Turbine
MOSES Wind Turbine analysis software for floating platform projects
Deliver safe, cost-effective floating offshore wind farm structures?
MOSES Wind Turbine is advanced simulation software for the design and analysis of floating offshore wind turbine platforms. It enables detailed 3D modeling of hydrodynamic and aerodynamic interactions accounting for wave, wind, current, and mechanical loads. The software integrates with external wind turbine solvers to apply realistic load cases and supports mooring system analysis to evaluate platform stability under dynamic, real-world environmental conditions. Optimize your designs for safety, performance, and compliance with international offshore standards, to deliver efficient and reliable floating offshore wind farms.
MOSES Wind Turbine Capabilities
MOSES Modeler
- Fast, effective and intuitive modeling of floating wind turbine hydrodynamic and structural geometry
- Trimesh modeling for creating simple box, column and cylinder shapes
- Advanced 3D NURB surfaces for modeling more complex geometries
- Import of existing geometry from file in *.ply, *.gdf, *.3dm, IGES, and DXF formats
- Parametric modeling through Microsoft Excel macros
- Assign MOSES structural classes and elements, pieces, parts, and bodies
MOSES Executive
- Keep track of all analysis and wind turbine model files with MOSES projects
- Simple editing of analysis files with context sensitive help, and command and option highlighting
- Interactive reporting, graphing, and 3D-model visualization
MOSES Language
- Powerful and flexible language for specifying system behavior and performing complex analyses
- Macros, loops, and conditional execution
Hydrodynamics
- 3D Diffraction and Morrison?s Equation
- Automatic adaptive meshing trims and refines the hydrodynamic mesh at the waterline
- Nonlinear, slowly varying, wave drift forces
- RAOs (response amplitude operators) at center of gravity or remote location
- Frequency domain pressure visualization as per DNV-OS-J103
- Hydrostatic and hydrodynamic data exported in WAMIT file format for aeroelastic wind turbine solver simulations
Connectors
- Catenary mooring lines with buoys or clump weights
- Rod elements for accurate mooring line and power cable dynamics with large deflection beam capabilities
- Lift, lower, or upend with multiple slings and hooks
- Activate or deactivate to simulate breaking or re-rigging
- Nonlinear springs with tension or compression only
Time Domain Analysis
- Fast computation of the full system response
- Automatic import of aeroelastic solver time series loads from DNV?s Bladed
- Single or multi-body simulations
- Current, irregular waves, and/or wind
- Multiple body motions can be analyzed
- Dynamic tank flooding and emptying
Structural Code Checking
- Beam and plate element analysis
- Linear, nonlinear, and frequency domain analysis
- Modal analysis using subspace iteration
- Code checking to API, AISC, NORSOK, and ISO codes
- Plate panel checks as per DNV-RP-C201 and DNV-RP-C202
- Interactive results visualization with Postvue
Fatigue Life Evaluation and Redesign
- Spectral, time history, and deterministic fatigue analysis
- SCF calculations recommended by API (including 21st Ed. supplements), HSE, DNV, DS449, and NORSOK codes
- API (including 21st Ed. supplements), AWS, HSE, and NORSOK thickness dependent recommended S-N curves
- Reservoir (rain flow) cycle counting method
- ISO 19902
MINIMUM:?4GB RAM. Performance is dependent on model size and resources available. ?
RECOMMENDED:?Win 10, 11. 8GB RAM. 10GB of free disk space. DirectX10 and Open GL
BROWSER COMPATIBILITY:?Edge, Chrome