The latest PLAXIS release has been updated to include design approaches for PLAXIS 3D. Users can now design in accordance with Eurocode or other methods that utilize partial factors within the 3D design frameworks. Additionally, an improved conversion facility has been implemented for older PLAXIS 2D and 3D projects when opened with the latest version. Furthermore, the modal analysis feature for Monopile Designer has now transitioned into general availability.

With Design Approaches users can store, manage and apply sets of partial factors in a general way in their analysis. Previously available only PLAXIS 2D, this allows users to apply modelling principles considering partial factors for soils and loads, to follow Eurocode or LRFD, and more easily set up SLS and ULS analysis in PLAXIS 3D projects. Users can import and export Design approaches to easily share and reuse those from existing 2D projects in their 3D projects. Design approaches are also included when using the 2D to 3D Converter, ensuring they end up seamlessly in the generated 3D geometry. Design approaches are only available in Advanced and Ultimate tiers.

A new conversion facility is included for PLAXIS projects that were created in earlier versions. This provides users with a more robust experience than before when opening old projects in new versions of PLAXIS, reducing the risk of data loss and properly converting modified properties. Additionally, this new tool can also help users determine in which PLAXIS version the project was originally created or calculated. The conversion facility will automatically save the project with a converted suffix to ensure the original project is not overwritten, when conversion is required. It's highly recommended to open old projects from local storage devices. Using cloud-based or network-based storage locations directly may negatively impact the performance of the conversion process, especially for unsynchronized cloud storage. Conversion of projects is supported for projects from PLAXIS 2D and 3D 2017 and later.

Offshore wind turbines are subject to a very large number of cyclic loads, more than any other structure ever built. Engineers need to calculate the natural vibration frequencies and vibration modes for the monopile-tower-nacelle system, considering the influence of soil-structure interaction, to ensure they provide a resilient design.
Modal analysis, previously released as a Technology Preview, enables you to determine the natural vibration frequencies and vibration modes for the monopile-tower-nacelle system. The rotor-nacelle assembly is modelled as a lumped mass. Soil-structure interaction can be considered through the initial stiffness of the soil reaction curves or ignored by specifying a ‘clamped’ condition.

So, update to our latest editions to benefit from these new features and software improvements using either the CONNECTION Client or by downloading the software yourself today!
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