ReleaseHighlights mF430
ReleaseHighlights mF430
ReleaseHighlights mF430
3
highlights
Table of Contents
RSM algorithms 4
Improvements 4
The Workflow 6
New Features 6
Improvements 11
1
What’s new in modeFRONTIER v. 4.3
modeFRONTIER 4.3 includes significant new features and
several enhancements of the existing components. The
highlights of the new and enhanced features available illustrate
how to take advantage of the new capabilities for existing
users.
In particular the enhanced modules include the following:
Parallel RSM
Parallel RSM training use multi-thread technology in the
FSIMPLEX and FMOGA-II algorithms.
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MOSA
Enhancements for the MOSA algorithm include:
• Support of unordered discrete variables.
• Steady-state evolution option.
Evolution Strategy
Support of unordered discrete variables for the Evolution
Strategy algorithm.
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RSM Multiple Function Plot
The RSM Multiple Function Plot for comparative display of
multiple RSM functions created and interactive moving sliders
to change input values and update the related RSM function.
5
The Workflow
New Features The Grid System
The Grid System powered by GridGain framework enables
modeFRONTIER for grid computing. This system lets
modeFRONTIER submit Workflow design evaluation jobs
across a local network, wait for the execution and retrieve the
results. The Grid System is available in beta version for the
UGS-NX, LabVIEW, ANSYS Workbench and SimulationX
nodes only.
ANSYS Workbench
The new ANSYS Workbench Direct Integration Node includes
the following features:
• Support of ANSYS Workbench v12.1.
• Handling of Input/Output Parameters defined in the
Workbench Parameter Set.
• Pre-processing macro functionalities available to detect
geometry failure, check mesh quality or similar.
• Post-processing macro functionalities available for
advanced assessment of results.
• Support GridGain system for distributed computing.
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Figure 7. The new ANSYS Workbench node interface
METAPost
The METAPost Direct Integration Node lets METAPost users
extract FEA responses for the optimization problem, by reading
the following quantities:
• Real Scalar History
• Real Vector History (X,Y history curve)
• Complex Vector History (Frequency, Magnitude and
Phase)
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SimulationX
The SimulationX Direct Integration Node for coupling with
SimulationX software is used for design, analysis, and
optimization of complex systems: the interface available
enables parsing of inputs/outputs parameters to/from
Components and Connections, including scalar (e.g.
component/connection parameters), vector (e.g. output curves)
and matrix (e.g. Component Tables) data. The SimulationX
node supports GridGain system for distributed computing.
JMAG
The new JMAG Direct Integration Node supports JMAG
Designer and handles input scalar parameters for the Study
available as well as scalar output parameters.
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Octave
The new Octave Direct Integration Node permits coupling with
the Octave software tool.
SoC
The SoC Node allows easy integration into modeFRONTIER
optimization workflow of any System-on-Chip simulator that
follows the Multicube* specifications. The integration node
takes care of the design space introspection, automatic
workflow generation and simulator interaction.
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LookUpTable
The LookUpTable (LUT) node which, for a given set of inputs
X=(X1,X2,...,Xn), and a reference sets of data (i.e. any table in
the Design Space), finds the nearest point to X, by returning the
array corresponding to the design of the dataset which best
matches X. Consequently, combined use of the LUT node and
SOM utility enables the users to use any SOM Table in the
Workflow to find the BMU in order to classify sets of data for
each iteration of the scheduler selected.
Improvements
Major improvements of the existing features include:
• Ambient conditions available as input and custom unit
selection in the Flowmaster node.
• New license check option before the evaluation run
starts for the ANSA and GT-SUITE node.
• PRT and ASM versioning control in the ProEngineer
node.
• Timeout option available in the application script nodes.