Application: 2D/3D Electrostatic
This unique page has been specifically created to make it easier for you to obtain information that is pertinent to your particular application needs. The links provided here will help to focus your search and to eliminate unnecessary navigation through our entire web site. We recommend that you bookmark this page, as it will be regularly updated, when applicable, with the most current information available on our site.
Recommended products
Based on your application, we recommend the following products and simulation capabilities:
Low Frequency Electric Field
- Static solver 2D / 3D
- Current Flow solver 2D / 3D
- Time-harmonic solver 2D / 3D
- Transient solver 2D / 3D
Design Optimization
Coupled Analysis
Features of these products:
- Geometric Modeler
Easy to use Extrusion-Based and Solid Modeling tools make even the most complicated designs quick and painless to draw. - Material Library and Modeler
Standard and customizable user library for creating materials with desired behavior and properties. - Meshing & Adaption
Automatic or user-defined mesh generation with adaption tools for refinements. - Boundary Conditions
Specify the behavior of the unknown fields on the outer surfaces of the model. - Parameterization
Parameterize any system and user defined variables for powerful "what-if" analysis. - Customization & Automation
Find out more on how Infolytica's powerful scripting engine allows our products to work with any programming environment that implements ActiveX scripting and OLE Automation, such as Visual Basic Script, Java Script, Perl, etc.
Gallery Spotlight -- 2D/3D Electrostatic
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To demonstrate the flexibility of Infolytica's suite of Electromagnetic and Thermal Analysis packages, we have taken a Gas Insulated Switch and simulated it under a variety of different loads and configurations. |
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Other "2D/3D Electrostatic" examples of our software in action :
Magnetron - Particle
Trajectory
The trajectory of an electron in a magnetron can be determined from the magnetic
and electric fields present in the space between the cathode and the anode. In
the analysis performed for this ElecNet example, the electric and magnetic field
strengths are adjusted so that the electron does not reach the anode and forms
a cyclic trajectory.
Surge Arrester:
Minimizing Electric Field Stress in Resistors
In this Gallery page, we show how the tandem of OptiNet and ElecNet was used
to find the dimensions and the placing of the grading rings in a surge arrester,
with the aim of lowering the max p.u. electric stress in the resistors.
Lightning Arrester
Simulation
The surge arrester example presented on these pages is based on a document
from the International Electrotechnical Commission (IEC) -- "Guide for the determination
of voltage distribution along the length of metal-oxide surge arresters".
The ElecNet simulation results were compared to some results provided in this
document.