サイエンスソリューションズ List of Products and Services

EMSolution is an electromagnetic field analysis software that has introduced and improved the edge element finite element method since its early stages. In addition to the introduction of edge elements and the ICCG method, it has independently developed and implemented advanced analysis techniques such as the nodal force method and the sliding method, enabling large-scale and high-precision analyses to be performed quickly.

We have developed the parallel high-speed electromagnetic field analysis solver 'HPC-EMSolution' that "accelerates electromagnetic field analysis by 100 times and analyzes models 10 times larger." Its overwhelming speed and capability to handle large-scale models break the conventional wisdom of electromagnetic field analysis in electrical equipment design, leading to breakthroughs in product development and providing a competitive edge that overwhelms other companies. 【Features】 ■ Significantly reduces analysis time through parallel analysis ■ Enables analysis of large-scale models with tens of millions of elements ■ Improves analysis speed through parallelization ■ Available for immediate use with no initial investment *For more details, please refer to the PDF document or feel free to contact us.

EMSolution-Lite is a budget version of EMSolution (electromagnetic field analysis) specifically designed for two-dimensional analysis. While the analysis model is limited to two dimensions, it allows users to utilize most of EMSolution's features (equivalent to the Professional package) for models with up to 100,000 elements. It was created in response to users' demands for an easy way to perform two-dimensional electromagnetic field analysis. For example, it can perform no-load analysis of PM motors as well as PWM voltage source analysis. Additionally, it can analyze the slip-torque characteristics of induction motors. Circuit and motion coupling analysis for electromagnets and actuators is also possible. We encourage you to use it for two-dimensional analysis and parameter surveys of motors, actuators, and more.

This document presents the features of EMSolution using the two-dimensional analysis of "induction motors" as an example. It provides a detailed explanation of the application of the sliding method in AC steady-state analysis, as well as transient analysis using the results of AC analysis as initial values. [Contents] ■ Application of the sliding method in AC steady-state analysis ■ Transient analysis using the results of AC analysis as initial values ■ Usage - AC steady-state analysis using the sliding method - Analysis using AC steady-state analysis as initial values *For more details, please refer to the PDF document or feel free to contact us.

This document covers "Coupled Analysis with MATLAB/Simulink." It provides a detailed explanation of the coupled analysis methods, including examples of the plunger model. 【Contents】 ■ Introduction ■ Coupled Analysis Methods ・ Coupling of Electrical Circuit Systems ・ Coupling of Motion Equations ■ Analysis Examples ・ Plunger Model ・ Analysis of Brushless Servo Motors ■ Conclusion ■ Usage *For more details, please refer to the PDF document or feel free to contact us.

This document presents a case study on the analysis of "servo motors." It provides a detailed explanation of the impact load analysis of a DC brushless servo motor using circuit diagrams and figures. [Contents] ■ Impact load analysis of DC brushless servo motors - Fig.1 Analysis model and mesh - Fig.2 Rotor rotational speed - Fig.6 PSIM circuit diagram - Fig.7 Motion equation equivalent circuit diagram - Fig.12 Coil current waveform - Fig.13 Terminal voltage waveform, etc. *For more details, please refer to the PDF document or feel free to contact us.

This document presents a case study on the analysis of "transformers." It provides a detailed explanation of transformer analysis, as well as load analysis results. 【Contents】 ■Introduction ■Transformer Analysis ・Fig.1 Transformer Finite Element Mesh: 1/4 Model and COIL ・Fig.2 No-load Analysis Electrical Circuit ・Fig.3 No-load Analysis Primary Current Waveform ・Fig.4 No-load Analysis Secondary Voltage Waveform ・Table 1 No-load Analysis Results ・Table 2 Load Analysis Results, etc. *For more details, please refer to the PDF document or feel free to contact us.

This document presents a case study on the analysis of a "plunger." As a simple example of electromagnetic field analysis coupled with motion and external circuit systems, it provides a detailed explanation of the analysis of a plunger model using graphs and figures. [Contents] ■ Plunger - Fig.1 Plunger analysis model - Fig.2 Motion of the movable element and distribution of eddy current density (A/m²) - Fig.3 Change in magnetic flux - Fig.4 Fluctuation of the movable element's vertical position - Fig.5 Change in current within the circuit - Fig.6 Variation of electromagnetic force acting on the movable element *For more details, please refer to the PDF document or feel free to contact us.

This document presents examples of electromagnetic field analysis focused on permanent magnet synchronous motors. 【No-load Analysis】 - Cogging torque waveform - Induced voltage (back electromotive force) waveform 【Load Analysis】 - Explanation of rotating magnetic field using magnetic flux line diagrams - Torque waveform at rated current - Current-torque characteristics - Current phase angle-torque characteristics 【Coupled Analysis / Parametric Analysis】 - Current waveform - Speed-torque characteristics and efficiency map We also explain what can be understood from these results and how they can be useful for design and other purposes. If you are interested in electromagnetic field analysis of permanent magnet synchronous motors, please take a look. *For more details, please refer to the PDF document or feel free to contact us.

Tracing back to the foundations of a wide range of technologies is something that we cannot accomplish on our own. Therefore, we create optimal solutions through partnerships with universities, research institutes, and companies both inside and outside the organization.