- Redeem training credits for training or services of your choice
- Automate performance analysis
- Model offshore vessels and platforms
- Simulate marine operations
MOSES
Integrated offshore simulation software
Including 10 - 15 training credits
Conquer the complexity of marine operations with simulation
MOSES is integrated offshore simulation software. This advanced hydrostatic and hydrodynamic software ensures that you can apply industry best practices to installation and design sequences, while exploring design alternatives within a unified modeling environment. Bentley MOSES integrated simulation software helps you minimize offshore project risks with optimal designs.
MOSES is offered in different variations, so you can choose what?s best for you.
Automate performance analysis
Easily analyze floating systems across a range of operating conditions using simulation language to define environmental conditions, specify mooring configurations, and run integrated solvers in a unified environment.
Model offshore vessels and platforms
Use interactive graphical tools specific to offshore structures to prepare models of your vessels and floating systems. Help ensure accurate loading definition by visualizing tank and compartment models during modification.
Simulate marine operations
Leverage comprehensive and customizable scripting tools and pre-defined macros to explore design alternatives and manage complex installation sequences.
MOSES
Analyze stability and motions in the frequency domain cost-effectively with MOSES. Enjoy hull and compartment modeling, as well as strip theory and 3D diffraction analysis.
The modules included in all MOSES packages include:
- MOSES Solver: Allows you to consider all type of forces acting on your floating systems, including hydrostatic, hydrodynamic, inertial, and mooring forces.
- MOSES Language: Provides a unique, flexible, and powerful way of specifying system behavior and analyzing performance for different installations and operational conditions.
- Hull Modeler: Gives you an interactive way to create 3D hull shapes.
- Stability Modeler: Allows you to model compartmentation and load case management.
- Motions Modeler: Provides the tools for modeling environmental and mooring inputs.
- Hull Mesher: Enables you to graphically represent structural models.
- Basic Connectors: Offer a generalized way of modeling lifting slings, anchor lines, mooring lines, nonlinear springs, pins, fenders, and other items that connect two bodies or a body to the ground. Connectors can be tension-only or compression-only and custom connectors can be defined.
- Lift, lower, or upend with multiple slings and hooks
- Activate or deactivate to simulate breaking or re-rigging
- Move anchors to achieve a specified tension
- Hold hooks at elevation or load while flooding or pumping
- Catenary mooring lines with buoys or clump weights
- Nonlinear springs with tension or compression only
- Gaps, pins, and lines provide constraints to motion
- Strip Theory: Provides a fast and proven way to predict the motions of your vessel. It is well suited for barge transports and any vessel that is slender in its L/B (length/beam) ratio.
- RAOs (response amplitude operators) at CG (center of gravity) or remote locations
- Standard and user-defined spectra
- Statistical multipliers or storm duration definition
- 3D Diffraction: Allows you to predict motions for non-ship shaped hulls and account for surge. Adaptive meshing automatically increases panel mesh density as required.
- Hull Modeler automatically generates hydrodynamic meshes
- Non-linear, slowly varying, wave drift forces
| Features | MOSES | MOSES Advanced | MOSES Enterprise |
| MOSES Solver: Allows you to consider all type of forces acting on your floating systems, including hydrostatic, hydrodynamic, inertial, and mooring forces. | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| MOSES Language: Provides a unique, flexible, and powerful way of specifying system behavior and analyzing performance for different installations and operational conditions. | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| Hull Modeler: Gives you an interactive way to create 3D hull shapes. | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| Stability Modeler: Allows you to model compartmentation and load case management. | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| Motions Modeler: Provides the tools for modeling environmental and mooring inputs. | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| Hull Mesher: Enables you to graphically represent structural models. | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| Basic Connectors: Offer a generalized way of modeling lifting slings, anchor lines, mooring lines, nonlinear springs, pins, fenders, and other items that connect two bodies or a body to the ground. | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| Strip Theory: Provides a fast and proven way to predict the motions of your vessel. | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| 3D Diffraction: Allows you to predict motions for non-ship shaped hulls and account for surge. | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| Time Domain: Perform time-history simulations on single or multi-body systems to predict performance. | ? | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| Pipe and Rod Elements: Handle mooring line dynamics with accurate calculations or response, including accounting for large deflections. | ? | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| Structural Solver: Enable structural analysis, as well as spectral fatigue analysis of topside and cargo structures. | ? | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| Jacket Launch: Perform six-degree-of-freedom time domain simulations of jacket launches from a barge into water. | ? | ? | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
| Generalized Degrees of Freedom: Understand the effect of structural deformation and flexibility on buoyancy, frequency response, and loadout calculations. | ? | ? | [icon name=”check-circle” style=”solid” class=”” unprefixed_class=””] |
Processor
CPU: Pentium 4 or higher
Operating System
Windows 8/8.1, 10, 11
Memory
RAM: Minimum 2 GB?SACS performance is dependent on model size and resources available
Hard Disk
Minimum 10 GB partition for SACS installation recommended
Display
Graphics card with a chipset that supports Open GL
Network
A network connection is required. 100 Base-T or greater local area ethernet network TCP/IP network protocol is supported.
For the most up-to-date system requirements, visit Bentley Communities.