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Analysis Advisor:
Guides designers and novice users step-by-step through
their specific analysis problem. Helps answer common
questions relating to what study type to use, what to do
if mesh fails and how to interpret the results.
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Analysis
Library: Creates templates of commonly used
analysis specifications such as loads, supports, and contact
conditions. Users can simply drag and drop the templates to
create loads/supports on any model. |
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Spot Weld Connector: Simulates spot weld
connections to analyze spot welded sheet metal assemblies.
Can be done in a simple one step process rather than the
tedious and time consuming traditional procedure. |
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Virtual
Wall: Defines
contact between a body and a virtual wall. Can be used to
simulate the behavior of walls, floors, and other flat
surfaces that exist in real life. |
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Ground
Bolt Connector: The existing bolt connector
feature has now been enhanced to simulate grounded bolts.
This allows users to simulate components that are bolted to
the ground. |
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Link
Connector: Simulates the connection between
components at two locations connected by a rigid link. The
link allows components to maintain a constant distance
between them while allowing relative rotation. |
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Hinge
Restraints: Simulates a hinge restraint in a
single step. Hinge restraints can be applied to cylindrical
faces such as holes and shafts. |
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Analysis
Research: Similar to the Research option in
Microsoft Word, users can now search hundreds of COSMOS
Knowledge Base web-based articles without ever leaving the
SolidWorks interface. In addition, they can also search
materials on matweb.com and access other useful resources
such as COSMOS newsgroups, subscription support, downloads,
and license requests. |
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Optimization Based on Design of Experiments (DOE):
Uses Design of Experiments (DOE) technology to search
for optimum design solutions. In addition, uses the property
manager instead of dialog boxes for optimization
inputs such as objective, design variables and constraints. |
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Make Meshing Invisible
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Mixed
Meshing: Analyzes assemblies of thick and thin
components efficiently by using a combination of solid mesh
for thick bodies and shells for thin bodies. |
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Assemblies with Clearances: Most assemblies have
a small clearance between the parts to account for
manufacturing tolerance. Now users can bond these parts even
if the assembly components do not touch each other. |
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Multi-body Support: Analyzes parts with
multi-bodies. Users can mix different mesh types (solid and
shell) and define contact conditions between the multiple
bodies in their parts. |
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h-Adaptive Convergence:
Automatically converges to correct results using
h-adaptive technology. Convergence is achieved through an
iterative process. In each iteration, the mesh in critical
areas is automatically refined to produce correct results. |
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Easier
Definition of Contact:
Gap/Contact options like node to node, node to surface and
surface to surface have been renamed and regrouped to enable
the user to easily define contact conditions. |
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Interrogation Tools
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"What's
Wrong" Indicators: Gives a visual indication of
the current status of analysis results in the Feature Tree.
When there is a change in the geometry, material, loads or
restraints, the “What’s Wrong” message box lists detailed
diagnostics messages regarding the warnings and errors.
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Analysis
File Management: Provides more options for
analysis results locations. Choose to keep the results in
either the SW model folder, a sub-folder under SW model
location, or a default results folder. Users can also define
separate results file locations for each study. |
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PDMWorks
Support for Analysis Files: In addition to
SolidWorks models, COSMOSWorks results can now be checked in
and out of the PDMWorks vault. |
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Edit/Create Material Libraries: Add or edit
linear, nonlinear, thermal and fatigue material properties
in a single step using the built-in material editor. |
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Shell
Analysis for Assemblies: Analyzes assemblies
of sheetmetal or thin components using shell elements.
Bonded, gap or contact conditions can be defined between
shell surfaces of an assembly. |
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Customize Default Plots: Specifies which plots
will be created by default after an analysis has run. For
example, users can specify that all mode shape plots be
created following a frequency analysis run. |
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Improved
Section Plots:
Creates plots cut by multiple section planes. |
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Enhanced
eDrawings Support: Creates a single compact
eDrawings file with multiple results plots. In addition,
users can hide selected parts of an assembly to better
visualize the results. |
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Advanced Analysis
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Drop
Test on Assemblies:
Performs drop tests on assemblies. Users can define
different contact conditions between various components. |
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Drop
Test on Flexible Floor: Performs drop tests onto
a flexible floor. This option simulates different flooring,
such as carpet, hardwood, or concrete. |
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Drop
Test Velocity & Acceleration: Measures velocity
and/or acceleration after the impact in a drop test. Along
with other units, acceleration can also be measured as ‘g’
force. |
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Fatigue
- Multiple S-N Curves: Defines different S-N
curves for each component in an assembly. S-N curves are now
integrated within the material database. |
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Fatigue
- Load History Data:
Variable amplitudes for loading events. Load history curve
data for an event can be imported from a text file. |
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Fatigue
- Rainflow Charts & Mean Stress Correction: Plots
rainflow and damage matrix charts at any given location.
Supports the mean stress correction option using either
Soderberg or Goodman theory. |
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Nonlinear - Hyperelastic & Viscoelastic: Define
or import engineering curve data into COSMOSWorks material
database to automatically compute material constants for
hyperelastic and viscoelastic materials. |
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Nonlinear - Nitinol:
Predefined material model for Nitinol in the COSMOSWorks
material database. Nitinol is a shape memory alloy used in
internal medical devices
such as stents. |
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Validation Examples:
Numerous verification problems for linear and non-linear
analysis to demonstrate the accuracy of results in
comparison to analytical results. |