http://www.caeda.com.cn/blog/ PJBlog3 2010-03-02T10:11:58+08:00 admin http://www.caeda.com.cn/blog/ caeda@vip.sina.com 2010-03-02T10:11:58+08:00 2010-03-02T10:11:58+08:00

Qontix Computational Libraries provide optimized suite of computational support libraries routines for technical and scientific applications. Qontix Computational Libraries currently feature computational libraries including:

HDF5
netCDF
These libraries have been tested and proven on a wide range of architectures.  Qontix Computational Libraries have been engineered to support 64-bit data access (ILP64) where applicable and compatible with MPI implementations including HP MPI, Intel MPI, Open MPI, amongst others.
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Qontix Numerical Libraries
Qontix Numerical Libraries provide highly optimized, extensively threaded mathematical routines for technical and scientific applications. Qontix Numerical Libraries feature a comprehensive set of mathematical libraries, including BLAS, LAPACK, ScaLAPACK, SuperLU, PETSc, PeIGS, and FFT.  

Qontix Numerical Libraries have been tested and proven to deliver high performance on a wide range of architectures.  Qontix Numerical Libraries have been engineered to support 64-bit data access (ILP64) and 256-bit precision (quad-precision), compatible with MPI implementations including HP MPI, Intel MPI, Open MPI, amongst others

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Qontix Performance Tools
Qontix Performance Tools provide commercially supported versions of performance monitoring and analysis tools to assist developers in the optimization process for large scale high performance computer system.  Qontix Performance Tools include:

Open|SpeedShop
Valgrind
PAPI
DynInst
KOJAK
SCALASCA
These performance monitoring and analysis tools have been proven on high end supercomputer systems.  Developers and end users can rely on Qontix support in critical, strategically and tactically vital areas of operations 点击下载此文件
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http://www.caeda.com.cn/blog/default.asp?id=153 admin http://www.caeda.com.cn/blog/ caeda@vip.sina.com 2010-02-16T09:06:46+08:00 2010-02-16T09:06:46+08:00

The main enhancements / changes:



TOSCA ANSA environment:

- Update to Version 13.0.3 of TOSCA ANSA environment

- Import of TOSCA Structure Parameterfiles to Task Manager

- Optimization Monitor including Convergence Plot, VTF generation and TOSCA.OUT viewer

- Improved Highlightning

- Tool Tips in preprocessing dialogs

- Support of multiple cutting splines in one smooth run



TOSCA Structure.topology:
- Improvements of manufacturing constraints for sensitivity based topology optimization



TOSCA Structure.shape:

- Improved Mesh Smooth algorithm

- Inner nodes are allowed in design area to ease problem definition



Plattforms:

- Support of Windows 7.


Solver changes:

The interface to PERMAS and MARC was adapted to the functionality of TOSCA Structure Release 7.0.0. This includes the support of contact definitions and displacement constraints for the sensitivity based topology optimization.

For subsequent versions of TOSCA Structure these solver interfaces will be frozen with functionality of

TOSCA Structure 7.0.1. The interfaces will be available in the current version as as-is interface. No further developments and enhancements will be made for this interface.



For more detailed information please see the attached release and platform notes.
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http://www.caeda.com.cn/blog/default.asp?id=152 admin http://www.caeda.com.cn/blog/ caeda@vip.sina.com 2010-02-01T10:03:23+08:00 2010-02-01T10:03:23+08:00

==================
Multicriteria design optimization software - IOSO NM.
IOSO NM - Universal software for complex real-life optimization problems.
Unique capabilities of IOSO NM allow:

to increase considerably the efficiency of the object under optimization and obtain technical solutions having no analogues by means of multifactor (up to 100 variables and up to 100  constraints) and multiobjective (up to 20 objectives) optimization;

to reduce considerably the terms and expenditures of the research;

to create supporting versatile systems for decision makers;

to link and solve tasks being computed by different program modules (multidisciplinary optimization) within the common project.
  


IOSO NM software can be easily integrated with different applications for engineering analysis both in-house and commercial, such as NASTRAN, ANSYS, StarCD, FineDesign, Fluent etc.

Novelty and distinctive features of IOSO NM:

multiobjective optimization for large-dimensionality problems (up to 100 independent design variables and up to 100 constraints), which allows to reach the increase of efficiency by 2 - 7 times higher than that of middle-dimensionality optimization tasks (20…40 design variables);

low expenditures for optimal solution search (reduction of the number of analysis code direct calls calls up to 20 times in comparison with traditional approaches and genetic algorithms (GA), depending on the complexity and dimensionality of the task);

full automatic optimization technology algorithms with easy to use procedure of task setting;

the possibility to solve multidisciplinary optimization problems;

multiobjective optimization for stochastic problems (up to 100 independent design variables), having complex topology of objective and the large number of constraints. Now it is well-known that many methods are capable of solving the tasks having up to 10 - 20 variables, and it is not known the analogues to IOSO  optimizer that is designed for large-dimensional multiobjective tasks (100 independent design variables and 20 objectives);

solving all classes of optimization problems including stochastic, multiextreme and having non-differential peculiarities.




IOSO NM is successfully used for solving practical tasks for such companies as: NPO “Saturn”, Sukhoy’s Design Bureau and other enterprise companies. The software is implemented in these company's technological process of the development of complex, competitive engineering objects, it is used for solving following problems:

obtaining the most efficient technical solutions by means of the optimization of the models of large-dimensional systems providing extremum for the one or several efficiency indices of the system;

determining optimal control laws for complex devices and for their different operational modes;

comparative analysis of alternative optimum variants and the substantiation of choice of technical solution.
  

The design optimization software package IOSO NM operates on PC under MS Windows NT/2000/XP operation systems and can be integrated within the network with analysis modules running under different operational systems, such as Windows, families of Unix or Linux (using TCP/IP data transfer protocol).
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http://www.caeda.com.cn/blog/default.asp?id=151 admin http://www.caeda.com.cn/blog/ caeda@vip.sina.com 2010-01-17T08:53:56+08:00 2010-01-17T08:53:56+08:00

Geometry

new module, introducing new functionality with potential for many further features
new STEP and IGES file format import capability
automatic mesh conversion with surface sew function
automatic Element Set creation for imported surfaces, for easy selection

Design
added draping warp and weft angle deviation graphics
implemented Element Set picking in graphics
corrected problems with Reverse ply application in Layup
re-introduced STL format import node merge tolerance, added edge sew tolerance

Manufacturing
added support for generation of exact innermost / outermost layup surfaces as point clouds
improved exact flat pattern calculations by preserving surface normals at ply edges

Analysis
implemented surface offset extrusion for Nastran solid elements

supported sandwich configurations for solid element extrusion with 3 elements through thickness

automated the 3D solid element stiffness property calculation and export

enabled Nastran/Optistruct exports to merge with any Nastran data file
upgraded Optistruct SET export format

forced laminate angles within -90..+90 for the Nastran First Ply option

improved support for Ansys LOCAL axis systems and Ansys Existing laminate generation

Post-processing
improved stiffness calculations for anisotropic materials, for interactive calculations
improved automatic min-max range for stress or strain contour plots
User Interface
enabled all windows to be considered when optimising desktop layout

added gradient background colour in graphics windows

allowed the opening of multiple files via Windows Explorer, in separate threads

added diagnostics for licencing operations

implemented licence update via user interface

improved status bar update for progress messages

implemented custom toolbar positioning
implemented html help in addition to standard Windows help

added numerous visual and efficiency improvements

PlyMatch
relaxed tolerance of camera movement for graphics update, for smoother animation
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http://www.caeda.com.cn/blog/default.asp?id=150 admin http://www.caeda.com.cn/blog/ caeda@vip.sina.com 2010-01-15T15:35:36+08:00 2010-01-15T15:35:36+08:00

History
Main article: NASTRAN
The original NASTRAN program came out of NASA’s need to develop a common generic structural analysis program that would be used by all of the centers supporting the space program. A specification was written and a contract was awarded to Computer Sciences Corporation for development of NAsa STRuctural ANalysis (NASTRAN) software. NASTRAN was released to NASA in 1968. In addition to NEi Nastran, commercial versions of are also available from Siemens PLM Software (NX Nastran) and others.

Improvements
Main article: Finite element analysis
In the late 1960’s, Finite Element Analysis software was confined to run on expensive mainframe computers and highly trained specialists were needed to apply the program. In this environment, the aerospace industry was the typical user because they had critical projects which could justify the resources FEA demanded. With improvements to the software and wider use of mainframes, FEA technology gradually spread to large corporations that could afford funding the huge investment in hardware, software, and a dedicated FEA staff. Usage spread from primarily aerospace and military applications to the automobile and maritime industries.

The microprocessor revolution and the advent of Personal Computers (PCs) in the 1980’s brought tremendous improvements in computing power, significant reductions in computing costs, and the steady development of numerical methods and algorithms. In the mid 1980’s, Noran Engineering recognized the long term advantages and impact that the PC hardware revolution could have on the engineering analysis field and embarked on a project to significantly enhance and modernize the original NASTRAN code and port it to PCs.

The first commercial version of NEi Nastran for use on PCs was released in 1990. The new code had a number of changes in architecture and programming language compared to legacy Nastran written originally for mainframes. These differences were intended to take advantage of the dramatic changes in computer hardware taking place and provide the code with key strategic advantages for the new PC platform. For example, since the cost of memory was dramatically reduced it was feasible to perform many operations faster in memory that normally were only done on disk.

Another example concerns Nastran’s DMAP (Dynamic Matrix Abstraction Process). DMAP altars were originally intended to provide flexibility and customization capabilities. However, the method has lost much of its initial intent and advantage since it now requires familiarity with arcane computer code and maintenance revisions must be written each time a new Nastran software version is released. With NEi Nastran, DMAP routines are easily added to the main body of the program and maintenance revisions are not necessary.

Present day

NEi Nastran ScreenShotNEi Nastran V9.2 was released in March 2009. It incorporates over 85 customer driven enhancements including the following additions: nonlinear composite Progressive Ply Failure Analysis (PPFA), concrete material model, direct enforced motion, bolt preload, enhanced rigid element features, visualization support for various entities, automatic dynamic plots during nonlinear analysis, transparent max/min, and a new look and feel for its Editor tool.[1]

Applications
Main Products
NEi Nastran
NEi Nastran is a powerful, general purpose finite element analysis tool with an integrated graphical user interface and model Editor which is used to analyze linear and nonlinear stress, dynamics, and heat transfer characteristics of structures and mechanical components. With specialized functions for Automatic Surface Contact Generation and Progressive Ply Failure Analysis, the software is frequently used for aerospace, maritime and automotive industries, particularly for analyzing composites. Features include control over mesh size and sensitivity, and the repair and editing of CAD geometry. NEi Nastran also offers Automated Surface Contact Generation and Automated Edge Contact Generation that allow separate meshing of components, mid-surfaced models, and off-set welds, then combine the meshes via proximity and user-defined settings.[2]

NEi Works
NEi Works provides SolidWorks users with an embedded finite element modeling tool. It features the SolidWorks look and feel for all menus and functions, as well as integration between design and analysis. NEi Works claims true geometry associativity, which updates loads, boundary conditions and meshes interactively whenever changes are made in SolidWorks.

NEi Fusion
NEi Fusion combines a 3D CAD modeler powered by SolidWorks, pre- and post-processing capabilities, and Nastran solvers to create an analysis package that is geared towards designers, consultants, and engineers.

Solutions
NEi Nastran
FEMAP Modeler
NEi Fluid Dynamics
NEi Thermal Basic
NEi Thermal Advanced
NEi Fatigue
NEi Aeroelasticity
NEi Optimization
LS-DYNA
NEi Motion
NEi Acoustics
SmartBrowser
NEi Nastran for Pro/Engineer 点击下载此文件
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http://www.caeda.com.cn/blog/default.asp?id=149 admin http://www.caeda.com.cn/blog/ caeda@vip.sina.com 2010-01-13T08:49:15+08:00 2010-01-13T08:49:15+08:00

Setting up and launching a parallel simulation has become much simpler and easier in CFD-FASTRAN V2007. This note discusses some of these developments.

Let’s start with things that have not changed. There are still two versions of CFD-FASTRAN solvers for parallel cases. The difference between the two versions is the underlying parallel communication mechanism, the choice of which is decided by the type of mesh used. Structured mesh models use MDICE (Multi-Disciplinary Computing Environment) and unstructured mesh models use MPI (Message Passing Interface). MDICE allows different applications to “talk” to each other and hence allows multi-disciplinary simulations such as coupled flow-structure simulations possible without integrating all features (disciplines) into a single code.

The following steps have been removed from V2007:

Need to run special scripts as part of the installation procedure
Need to launch MDICE registry and daemons
Need to launch parallel job only from the command prompt using different scripts such as CFD-FASTRAN-SOLVERP and fastran-mpi
These operations are automatically performed by the script behind the scenes, and hence the user does not have to perform these steps.

The following options have been added to setup parallel cases for CFD-FASTRAN:

Can setup both MDICE-based and MPI-based simulations using the improved parallel configuration panel (located on the Run tab)
Can launch a parallel job (MDICE or MPI) from CFD-FASTRAN-GUI or command prompt
A single command-prompt command for all (serial and parallel) FASTRAN job submissions (CFD-FASTRAN-SOLVER –dtf <file name>)
Can easily edit available hosts through CFD-FASTRAN-GUI
Now, we look at some of the settings available in the new Parallel Setup Panel. This panel can be reached through the Configure Parallel Run option available in the Run tab when parallel is selected as the Run Type. Depending on the type of mesh used, the MDICE or MPI panel will become available. The Host List can be edited by clicking on the Edit button on the left hand side of the parallel setup panel.

In MDICE-based parallel simulations, the Distribute Zones button in the Zone Assignment box performs load balancing based on the number of cells. This just assigns available zones to different nodes and no domain decomposition is performed. The load factor column gives an indication of the maximum speed up that can achieved through a particular distribution. The user can review this and reassign the zones to get as close to a load factor of 1 for all zones. Therefore, it is advisable that the user plans ahead to avoid the possibility of having large zones that tilts the load factor unfavorably. Also note that the chimera and stress zones should be assigned to an exclusive processor. At this time, chimera and stress calculations are performed in serial only.

In MPI-based parallel simulations, domain decomposition is performed using dtf_decompose. Several options for domain decomposition are available. The Multilevel Graph Partitioning Scheme provides high quality partitioning with less CPU time and performs work load balancing. If you would like to know more about domain decomposition, please follow this link.
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http://www.caeda.com.cn/blog/default.asp?id=148 admin http://www.caeda.com.cn/blog/ caeda@vip.sina.com 2009-12-11T08:42:34+08:00 2009-12-11T08:42:34+08:00

- The data can be output using SALT in any format required (text or
binary). Documentation of the SALT<->RTM-Worx interface is almost
finished; it will be on the download page within a few weeks.

- 3D will be finished soon.

- Capillary force on resin flow is very small and does not have
significant effect because it is very localized (near the flow front).
However, we may put a hook into RTM-Worx to allow extension of the model
through SALT.

- For curing we have an extension module. This can be combined with SALT
scripts to generate powerful solutions.

Note on SALT: SALT is a fast scripting language that supports
imperative, object oriented and functional programming. It is easy to
learn and very powerful and we have embedded this scripting engine in
RTM-Worx. The Reference Manual can be downloaded from:
   http://www.polyworx.com/upgr/rtwx.php

In the current release several scripts are included, like generation of
midplanes (e.g. 2.5D surface model from a 3D b-rep model), interface to
import ANSYS CDB files, animate the simulation etc.

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http://www.caeda.com.cn/blog/default.asp?id=147 admin http://www.caeda.com.cn/blog/ caeda@vip.sina.com 2009-12-10T08:39:26+08:00 2009-12-10T08:39:26+08:00

Faster engineering, securer data handling, convenient modeling and flexible licensing are now at hand with the new upgrade of the FRIENDSHIP-Framework. Release 2.1 includes new functionalities, operational refinement and strategies for efficient design, which help you to perform better and to create superior products. Functionalities that boost your design contribute to an overall slimmer design process. A design process that raises the bar for efficiency, user-friendliness and applicability—and that strengthens your and your designs' competitive performance.

In brief, the FRIENDSHIP-Framework 2.1 provides

Faster engineering through remote computing

Safer file handling through enhanced data management

Individualized work through the Configuration Wizard

Boosted surface design through hands-on point manipulation and validation

Flexible operation through extended licensing modes

Fully-parametric design of turbomachinery blades

A number of additional solutions for quicker, better and handier design

Clearly, each application yields major savings in time, cost and design resources. Yet their combination will boost your design process to top performance and superior products.

What does that mean, what do you gain?

Remote computing or distributed computing, as it is also referred to, is a technology that allows you to effectively include available hardware resources in your design process, thereby speeding up the overall computational time and consequently minimizing total development time. How does it work? The idea behind remote or distributed computing is to split and dispatch open computational tasks among idle hardware resources. These may be remote computers, far workstations or distant office hardware. Remote computing can employ virtually all available processing units. The distribution and result management  is handled through Secure Shell (SSH) protocol, which connects remote computers. Generally, the computation time of processes supported through remote computing is reduced by the factor of additional powerful hardware components. Especially for computationally intensive tasks, the enormous relief and the savings in time and cost this technology yields are overwhelming.

Applied to the FRIENDSHIP-Framework, this technology allows the parallel execution of integrated tools on your local computer or on remote machines. You can use available multi-core processors (CPU) to execute multiple instances of the extern tools that are integrated into the FRIENDSHIP-Framework. You may well start the external tools on remote computers through the SSH protocol. With respect to large operations like variant calculation or hydrodynamic optimization, distributed computing streamlines and consolidates your workflow massively.



Enhanced data management

Handling and storing data is a key challenge in software development. Release 2.1 answers to this quest with few smart solutions, which are designed to make you feel relaxed while operating the FRIENDSHIP-Framework.
With release 2.1, the current project file is updated and kept consistent to the project state. That helps managing system failures. Crash recovery for projects is a new functionality, which will recover your project to its latest state in case of the odd system collapse.
The incremental saving of project data additionally eases your work flow as it spares you long saving procedures, which can be quite straining especially when operating large projects. For such another development is a real asset: the FRIENDSHIP-Framework now runs on reduced memory. This is an obvious plus especially if you sample numerous designs in one project. Enhanced data management also means that projects are altogether loaded faster, which again reduces idle time significantly.  




Configuration Wizard

A new development for faster data exchange is the Configuration Wizard. This feature supports the smart and easy set up of input data for external tools, which  run within the FRIENDSHIP-Framework. The content and order of each wizard page can be configured by the provider of the corresponding definition and be customized to individual preferences accordingly. The Configuration Wizard translates the concept of the FRIENDSHIP-Framework as the designer's configurable workbench meaningfully into your  benefit.


Extended license modes


Matching the requirements of project engineering, release 2.1 comes with extended licensing modes. Now the FRIENDSHIP-Framework can be licensed with different temporal and functional scope. Float licenses are a flexible solution and cost saving alternative for mobile and group work. Licensed for one or more workstations, the FRIENDSHIP-Framework can be run on several work stations. In comparison to regular licenses, which are hardware-bound and which allow the installation and use of the software on the very registered computer, the float license enables the software use on several computers, even mobile devices, depending on the license scope. The FRIENDSHIP-Framework may now also be rented for a limited time frame. The rent license is particularly attractive for temporary project based work.




Point manipulation
Point management and the general visualization of geometry are easier and more convenient in release 2.1. For instance, the principal plane can be made visible even if the user does not operate in main view. Here, he can create and handle points along the displayed plane. Point creation is handier, work steps are consolidated and altogether faster. This is true also for the establishment of curves such as B-Spline and NURBS, which can now be generated through simple mouse operation. Using the menu bar is nonetheless available. Set your preferences and personalize the FRIENDSHIP-Framework, make it work the way you want it to work: facilitating an excellent engineering environment of utmost comfort is our prime principle and guides our development. Hence, a number of extra improvements have been added, which will surely make your operation of the FRIENDSHIP-Framework more convenient, more relaxed, more efficient.


Special functionality for turbomachinery
The Stream Section, a new curve type for the design of efficient blade surfaces like compressor blades, allows fully-parametric section design in length-preserving and angle-preserving systems. It facilitates the fully-parametric modeling of stream surfaces in comprehensive and convenient steps.

General
The User Guide is now available as a comprehensive handbook in printer-friendly format (PDF). It provides a consolidated overview of the scale and scope of functionality of the FRIENDSHIP-Framework and helps you get a read and too a quick start by showcasing numerous exemplary applications  for hull design and turbomachinery components. Access the latest User Guide here.
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http://www.caeda.com.cn/blog/default.asp?id=146 admin http://www.caeda.com.cn/blog/ caeda@vip.sina.com 2009-11-20T08:32:06+08:00 2009-11-20T08:32:06+08:00

In certain applications, different regions of the computational domain experience flow conditions that are so different that it is very difficult for any solver to produce sufficiently accurate results at the limits. In many situations, such problems can be separated and solved using loosely coupled solvers. Each solver is chosen to provide highly accurate solutions for the prevailing flow regimes. This kind of flexibility and fidelity is necessary when users are moving towards simulation-driven design solutions.

ESI's CFD-FASTRAN, a compressible flow solver, is ideally suited for high-speed external aerodynamics problems while the multi-physics solver CFD-ACE+ is best for heat transfer problems involving conduction, convection (natural and forced) and radiation. Several users may already be aware of FASTRAN/ACE+ coupling for fluid-structure interaction (FSI) simulations. From v2009.2, users can take advantage of a new FASTRAN/ACE+ coupling for heat transfer simulations. A typical application example (see figure 1 below) on thermal environment simulation is presented to help you get started on applications where you can use this feature.



Figure 1.  Re-entry capsule at angle of attack. Mach number contours are displayed for the external flow;
internal flow is represented by velocity vectors; capsule thickness and internal component show temperature distribution.

A large amount of aerodynamic heating is generated over hypersonic vehicles during re-entry. Thermal Protection System (TPS) materials are employed to prevent the heat from conducting into the internal cabin, which holds electronic devices, passengers, and other vital components. As a time-dependent process, the material making up TPS is at a low temperature and “soaks up” the heat – the conductivity of the material transports the heat (from the vehicle surface) through the thickness and into the internal volume. The material will also radiate some of the heat back to the flow – the amount depending on the emissivity of the material. A primary concern is to estimate the effects of aeroheating on the internal volume of the capsule, and its effect on electronic devices, passengers and cooling systems. In this application, typically the external flow is hypersonic in nature, whereas the flow within the capsule is a very low-speed flow dominated by natural convection. In addition to hypersonic aerodynamic heating, several other physics including heat conduction, natural convection and radiation have to be accurately modeled. CFD-FASTRAN solves for the external hypersonic flow and CFD-ACE+ solves for internal flow, heat conduction, convection and radiation. Exchange of heat flux/temperature data between the CFD-FASTRAN and CFD-ACE+ solvers occurs at defined interfaces. A simple demo case can be downloaded here.
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http://www.caeda.com.cn/blog/default.asp?id=145 admin http://www.caeda.com.cn/blog/ caeda@vip.sina.com 2009-11-04T08:59:57+08:00 2009-11-04T08:59:57+08:00

Version 2009.2 includes new enhancements of significant benefit for automotive, aerospace, fuel cell, and electronics customers.

Shorter prototyping process
The ACE+ suite allows the acceleration of the product development process by accurately simulating multiple physics in a single solution. Built around the CFD-ACE+ multiphysics solver and including specialized technology tailored to solve difficult applications, the tools within the suite can analyze complex physical phenomenon at the macro, micro, and even nano scales. The suite, also comprised of advanced automated meshing using CFD-VisCART’s adaptive mesh generation, substantially reduces the time needed to prepare complex geometries compared to traditional hex or tetrahedral meshing methods. This unique combination of specialized solver technology and advanced productivity tools makes the ACE+ Suite a powerful asset for customers.
Version 2009.2 includes significant updates to the CFD-ACE+ Advanced CFD and Multiphysics solver, CFD-FASTRAN density-based solver for high-mach flows, CFD-GEOM modeler and mesh generator, CFD-VisCART adaptive automated mesh generator, and CFD-VIEW visualization tools. Those enhancements have been made to increase usability, robustness and accuracy.

Benefits to select industries
Automotive customers will receive an increased benefit from the implementation of a new advanced turbulence model and the inclusion of automated boundary layer meshing in CFD-VisCART, which has dramatically improved both the speed and accuracy for large aerodynamic simulations.

New aerospace applications were addressed in this release with the ability to allow thermal coupling between CFD-FASTRAN and CFD-ACE+ to simulate high-mach re-entry heating of spacecraft. Fuel cell design engineers continue to benefit from a multi-year investment by the US Department of Energy to refine the multi-phase and porous media capability of CFD-ACE+, allowing ESI customers to simulate more accurately the electrical, structural, and water management performance of these complex electrochemical energy conversion devices.

Finally, the semiconductor manufacturing process simulation toolset received improvements for analyzing capacitive coupled plasma (CCP), which is one of the most common types of industrial plasma sources.

“The latest release of the ACE+ Suite includes many new features and developments designed to further improve our value proposition of high productivity coupled with highly accurate physics for the applications we have targeted”, said Joseph Strelow, Director of Virtual Environment Solutions at ESI. “This release benefits significantly from the expansion of our global CFD services activity which is becoming the driving force behind this application-focused approach to development”.
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http://www.caeda.com.cn/blog/default.asp?id=144