Software aids generator design…and motors
April 28, 2011 by Paul Dvorak
Filed under Turbine Design, Wind Power Generators, Wind Power News
Recently released MotorSolve v2.5, electric machine design software, has many improvements to the template modeling engine, results charts, and the user interface.
Recently released MotorSolve v2.5, electric machine-design software, has many improvements to the template modeling engine, results charts, and the user interface. A new online documentation resource is also available with the release. Improvements to the template library include a new interior/exterior wound-rotor template. The template-modeling engine used in MotorSolve has been fine tuned, allowing for a more intuitive experience. All changes result in more detailed analyses of machine design.
Coinciding with the release is the launch of LiveDocs for MotorSolve. In addition to the basic and general information available in the MotorSolve Help, the MotorSolve Live Docs provides in-depth information for better control and understanding advanced features, such as the Variation Geometry engine, sizing features, stator windings, and lumped parameters. Specific motor concepts also discussed include general PWM and cogging torque.
Infolytica Corporation
Infolytica.com
Help for generator designers
March 22, 2010 by Paul Dvorak
Filed under Wind Power Generators, Wind Power Software
The first release of V7 introduced multicore solving capabilities, which let users take advantage of dual, quad, and 8-core processors to get faster results from the software. Multicore features will be added in v7.1.
Developer of MagNet says its Version 7, available mid-spring 2010, will let users simulate the magnetization of a permanent magnet, expand on MagNet’s multicore support, and include other new features. V7.1, from Infolytica Corp., will allow simulating and determine the magnetic field strength inside the permanent magnet component by the magnetization pattern and source current in the magnetizing coils.
The result will be a permanent magnet for which each point inside will have a different recoil loop depending on the flux density reached during magnetization.
The permanent magnet can be then used as a component in an electromagnetic device, such as a generator or motor, for which further simulations can be performed as to study the performance based on the magnetized state that was stored from the previous simulation.
It will be available for PC’s running Microsoft Windows XP, Vista, and 7 in Spring 2010
