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Free seminar on experiencing and learning about magnetic field analysis.
We will hold a "Magnetic Field Analysis Experience Seminar (Free)." In this seminar, in addition to an explanation of the basic knowledge required for magnetic field analysis, you will have the opport…
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★Free Demo Version Campaign★ Announcement of the giveaway of a popular electromagnetic field analysis software demo version.
From November 1, 2018 (Thursday) to January 31, 2019 (Thursday), we will be running a free campaign for the demo version of the electromagnetic field analysis software "PHOTO-Series," which can visualize magnetic field distribution and eddy current density distribution. The demo version has no time limit for trying out the program, and all features, except for the number of elements (or nodes), are the same as the full version. One of the non-destructive testing methods for detecting defects, the eddy current deep flaw method, is also included in the analysis targets. By changing the arrangement of the inspection target and coil, it is possible to understand the situation in advance through analysis. Additionally, current sensors and capacitance sensors, which are widely used as non-contact sensors, are also included in the analysis targets, allowing you to utilize simulations of sensors that leverage electromagnetic phenomena. If you are considering purchasing the product or would like to experience the software firsthand, please take this opportunity to practice and experience the operation. *For more details, please feel free to contact us.
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Notice of PHOTO-Series Update (Ver 9.4)
In April 2022, we released the latest version 9.4 of the "PHOTO-Series." PHOTO-Series is an electromagnetic field analysis software that balances high functionality with low cost. It is a self-developed simulation tool that can simulate various electromagnetic phenomena by combining its rich features for analysis. [Main Feature Additions] (1) Added scattering by a perfectly conducting sphere to WAVEω's Mie scattering, and expanded the dielectric constant of the scatterer to complex numbers. (2) VOLTBM now allows for the setting of floating conductors, and added iterative solution methods such as Bi-CGSTAB and GMRES. Additionally, with the introduction of the fast multipole method, it can now handle larger scale problems (hundreds of thousands of elements). (3) Added node current input for current input in MAGTZ. Added iterative solution methods such as Bi-CGSTAB and GMRES.