Perform faster hull form difference and analysis with team-based concurrent modeling on a common 3D parametric model. Easily visualize and assess design alternatives within a consistent graphical environment with smooth data flow.
Ensure compliance with international stability criteria and balance vessel performance requirements using integrated analysis tools. Perform a range of analyses including intact and damaged stability, resistance and motions prediction, and structural analysis.
Create complex 3D hull forms for any type of vessel using wizards and interactive sketch tools. Systematically explore design alternatives by making measured changes to models with easy-to-use tools. Apply transformations to increase the productivity of the initial hull design process.
Help ensure accurate loading definition by visualizing tank and compartment models during modification. Use interactive graphical tools specific to offshore structures to prepare models of vessels and floating systems.
Quickly 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.
Leverage comprehensive and customizable scripting tools and pre-defined macros to explore design alternatives and manage complex installation sequence.
MOSES is available in three different variations, so you can choose what is best for you.
The Application fatigue analysis method uses the Rainflow counting approach to calculate the stress cycles resulting from a time history analysis – including the ability to serially accumulate the damage from numerous analysis simulations for numerous wind speeds and seastates.
A wave surface profile may be decided from a wave height spectral density function using multiple random seeds. Wind loading can be input as time history or as a random loading developed from various spectra.
Interface to the Bladed and FAST v7.1 software and account for the full coupling between wave, wind, and the wind-induced mechanical loading for a multimodal response analysis.
Automated workflows simplify the management of large and complex models, which encourages your team to explore more design options. Customizable templates within a common structural model make it easier to manage multiple analyses. Automatically pass data from one analysis step to another using industry-standard methodologies.
Model pile-soil interactions and apply wind, wave, seismic, ship impact, dropped object, and blast loads for a full range of likely effects. Conduct comprehensive analyses – including full nonlinear, dynamic, and impact effects – to predict how your platform or topside structure will behave under a host of conditions
Filter for critical conditions and provide compliance documentation. Built-in checking provides assurance that your designs comply with offshore international codes, including API, AISC, EC, ISO, DNV, and Norsok.