Execute a Data Import template on multiple files to create the corresponding table files at once.

Automatic creation of table files based on source file names

List view of the files on which the template is executed with status indicators

Ability to sort the list by execution status

Execute the capabilities of the Data Import on multiple files without coding scripts

Identify error occurrences when table files are created

Curve data can be extracted from an image and saved as a Simcenter Amesim table file.

Mobile manipulators to define axis scales

Points creation on the curve image through polyline drawing

Switchable zoom view with reticle

Editable polyline points and segments

Table properties with bridge to the Table Editor

Set axes’ definition in an unconstraint and smooth process

Keep adding points continuously to match the curve

Locate precisely the pixel position of the curve data points

Arrange the data points of the extracted curve

Export data points to a table file

Simplify the supercomponent creation workflow

Easily assign an image as the supercomponent icon

Show/hide ports according to needs

Keep consistency between local-global parameter and global parameter groups during

• • Supercomponent creation

  • Supercomponent disassembly

  • Copy-paste of a supercomponent 

Selection of an image directly as the supercomponent icon

Choice of icon size with 2 options:

Fit icon to image size

Fit image to icon size

Support of all the popular image formats: png, svg, jpg…

Improve the efficiency of supercomponent definition by having a visual representation of the supercomponent context 

Easily define the icon size along with users’ preferred workflow

Users can choose the image format that best fits their needs, allowing for greater flexibility

Show/hide ports with submodel image

Cohesion of group definition for global parameter and local global parameter when creating, copy-pasting, and disabling a supercomponent 

Handle port presentation flexibly according to users' needs 

Maintain consistency between local-global parameters and global parameter groups 

Revert local changes

Add several user elements 

Switch to any version

Version history in tree view and graphic view

Create and switch branches

Revert local changes with one click

Possibility to add several user elements 

Possibility to update the local version to any historic version

Easily cancel local changes and restore the base version

Manage user files (reports, data files, attachments etc.) flexibly 

Swap local content with any server version without having to explicitly download the other versions in different folders

Access of all the available versions on the server

Switch between tree view and graphic view

Have clear overview of the available versions

Easily manage model variation with branches

New branch creation based on the current branch 

Switch to any version in any branch

Easily manage model variation with branches (branch creations, switch branches)

Leverage collaboration among a group of model developers

Contextual highlight of variables when viewed in:

Performance analyzer state contributions pane

Frequency Response Function (FRF) – Modal analysis 

Gain direct access to the variables of interest upon a double-click – in all features which support it 

Access to submodel-setting in sketch mode

Access to parameter-setting in sketch mode

Set structural parameters in the same context as standard parameters

Set submodels directly in sketch mode 

Change parameters directly in sketch mode 

Set structural parameters (which change the number of ports for an icon) directly in sketch mode, as standard parameters

Easily set known parameters for components the moment they are added to the sketch

Shorten the feedback loop between building the sketch, setting submodels and assigning parameters in the same mode

Title can be set on the axis of any type of 3D display

Variable titles are used as graph axis titles by default

Identify quickly the variables on your plot

Provide the most complete information when analyzing and sharing results

Highlights on the sketch of the observer and controller variables that define the frequency response function

Export the curves data of the Bode diagram (both gain and phase) to CSV format

Identify the relevant data you want to analyze

Gather all the necessary data in one file and reuse it outside Simcenter Amesim

Open csv file correctly in Excel according to your region settings

When applicable, components now also display color animations

Component animation support for components generated by the valve builder 

In addition to lines, certain components support color animation as well – using the same color map

Components generated using the valve builder now support component animation 

Gain clearer insights into your simulation results in the sketch

Report on your findings in a clear, consistent manner with widespread use of component color animation

Analyze and problem-solve your model live at the click of a button 

An optimized discontinuity handling mechanism, equivalent to the one already available for the Simulink interface, is now applied to all co-simulation export interfaces, as soon as the exported model uses the variable-step solver  

Supported co-simulation interfaces are FMI, Simulink, Simcenter 3D Motion, Automation Connect, Adams and the Generic Co-simulation

This optimized discontinuity handling is independent for the chosen master tool

The maximum number of solver restarts upon a discontinuity can now be customized by means of the SIMP00 submodel of the Simulation Library. 

This can solve convergence issues on some numerically sensitive models used with the standard (variable-step) integrator. 

The generic job command, called AMEHPCStudyStart, that allows to easily launch batch and design exploration studies in user-defined scripts, has been updated.

The support of Windows calculation nodes is now available via a launch mechanism based on an MPI process. 

All the complexity of job configuration (e.g., multiple compute nodes) and startup is completely managed by this unique command.  

Export of models as Functional Mock-up Units (FMUs) for co-simulation, complying with version 3.0 of the FMI standard (via GUI or scripting).

As for FMI 2.0, before being exported as FMUs, models can be hybridized with Modelica blocks, pretrained neural networks, Statecharts or previously imported Simulink models.

Support of FMI 3.0 “terminals” for physical ports and multidimensional variables.

Support of Windows 32-/64-bit and Linux 64-bit standard platforms, as well as real time targets, with FMI 3.0 “build configuration”.

Export of models as 3.0 FMUs for co-simulation for standard Windows and Linux platforms, and for real time targets

Support of FMI 3.0 “terminals” in exported FMUs

Support of FMI 3.0 “build configurations” for real time targets
(source code and precompiled libraries)

Leverage Simcenter Amesim technology (models and their native solvers) in FMI 3.0 compatible tools

Go beyond the FMI 1.0 or 2.0 signal-based definitions with physical ports and/or multidimensional variables

Automate the handling of source code FMUs for real time

Once the Modelica bloc is generated in the Simcenter Amesim Sketch, the associated documentation is accessible without the Modelica Editor

Access to the Modelica bloc documentation from the Simcenter Amesim Sketch without Modelica Editor.

Get a complete description of the Modelica system like the dependencies, the states variables and the Modelica documentation.