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Publication of an explanation of vector magnetic characteristic analysis technology for the realization of high-efficiency motors!

This document explains the vector magnetic characteristic analysis technology for achieving high-efficiency motors. This technology is supported by Professor Masato Enokizono (Emeritus Professor at Oita University, currently the representative of the Vector Magnetic Characteristic Technology Research Institute), and we have cited information from the Vector Magnetic Characteristic Technology Research Institute, which is headed by the professor. [Contents] 1. The target is the reduction of iron loss in electromagnetic steel sheets. 2. Iron loss is the sum of eddy current loss and hysteresis loss. 3. Vector magnetic characteristics of electromagnetic steel sheets. 4. Conventional measurements are scalar magnetic measurements. 5. Developed vector magnetic measurements. 6. Actual measurement results. 7. Database creation as magnetic characteristics. *For more details, please refer to the PDF document or feel free to contact us.

• PM motor

Supports low loss and high efficiency of EV motors! Capable of analyzing rotating magnetic fields and hysteresis.

"μ-E&S" is a loss analysis software that can simulate the distribution of magnetic flux density, magnetic field, and iron loss based on actual measurements of motor laminated iron cores. By analyzing vector magnetic characteristics, it can identify areas where iron loss occurs significantly, making it a useful tool for the miniaturization, lightweighting, low loss, and high efficiency of motors. 【Features】 ■ High-precision calculation of magnetic vectors ■ Capable of calculating rotating magnetic fields and hysteresis ■ Equipped with permanent magnet excitation function and torque calculation function *For more details, please refer to the materials. Feel free to contact us with any inquiries.

• Magnetic field analysis/electromagnetic wave analysis

Publication on vector magnetic characteristic analysis technology for achieving high-efficiency motors!

This document is a technical column edited and compiled based on the content related to "Vector Magnetic Characteristic Analysis" mentioned in past newsletter columns. We would like to disseminate information about the importance of vector magnetic characteristic analysis technology for achieving high-efficiency motors. [Contents] ■1. Vector Magnetic Characteristic Analysis Technology - Prologue - ■2. Top Runner Method and IE4 ■3. Inverter Technology and Energy Saving ■4. Will Increasing Size Lead to IE3? ■5. Electrical Steel Sheets are Excellent ■6. Focus on the Vector Magnetic Characteristics of Electrical Steel Sheets *For more details, please refer to the PDF document or feel free to contact us.

• PM motor

A comparison of the magnetic field and iron loss distribution of IPM (Interior Permanent Magnet) motors using vector magnetic characteristic analysis and conventional method analysis!

This document presents an analysis example aimed at comparing the magnetic field and iron loss distribution of IPM (Interior Permanent Magnet) motors using vector magnetic characteristic analysis and conventional method analysis. It provides a detailed explanation of the analysis model and objectives, as well as the results of magnetic flux lines, magnetic field distribution, and iron loss distribution. 【Contents】 ■5.1 Analysis Model and Objectives ■5.2 Analysis Conditions and Calculation Time ■5.3 Magnetic Flux Lines, Magnetic Field Distribution, Iron Loss Distribution Results ■5.4 Comparison with Conventional Methods ■5.5 Results of Angle θB and Aspect Ratio α Distribution ■5.6 Hysteresis Curve and Lissajous Waveform Results *For more details, please refer to the PDF document or feel free to contact us.

• PM motor

A basic analysis example aimed at the iron loss distribution of SPM (Surface Permanent Magnet Motor) is presented!

This document presents a basic analysis example aimed at the iron loss distribution of SPM (Surface Permanent Magnet) motors. It provides a detailed explanation of the analysis model and objectives, as well as the magnetic flux lines, magnetic field distribution, and iron loss distribution results. [Contents] ■4.1 Analysis Model and Objectives ■4.2 Analysis Conditions and Calculation Time ■4.3 Magnetic Flux Lines, Magnetic Field Distribution, Iron Loss Distribution Results ■4.4 Results of Inclination Angle θB and Aspect Ratio α Distribution ■4.5 X-Direction Hysteresis Curve Results ■4.6 Y-Direction Hysteresis Curve Results ■4.7 Lissajous Waveform Results ■4.8 Current Waveform Results *For more details, please refer to the PDF document or feel free to contact us.

• PM motor

An example of analysis using a transformer model with directional materials is published!

This document presents an analysis example using a transformer model with directional materials. It provides a detailed explanation of the analysis model and objectives, as well as the results of magnetic flux lines, magnetic field distribution, and iron loss distribution. [Contents] ■3.1 Analysis Model and Objectives ■3.2 Analysis Conditions and Calculation Time ■3.3 Results of Magnetic Flux Lines, Magnetic Field Distribution, and Iron Loss Distribution ■3.4 Results of Angle θB and Aspect Ratio α Distribution ■3.5 Results of Hysteresis Curve in the X Direction ■3.6 Results of Hysteresis Curve in the Y Direction ■3.7 Results of Lissajous Waveform ■3.9 Results of Current Waveform *For more details, please refer to the PDF document or feel free to contact us.

• PM motor

An example of analysis using a model of non-oriented electrical steel sheet formed into a ring shape is presented!

This document presents an analysis example using a model of isotropic electromagnetic steel sheets shaped into a ring. It provides detailed explanations on various topics, including the ring model voltage source (differences in steel materials), magnetic field distribution, and iron loss distribution results. [Contents] ■2.1 Analysis Model and Objectives ■2.2 Analysis Conditions and Calculation Time ■2.3 Magnetic Field Distribution and Iron Loss Distribution Results ■2.4 X-Direction Hysteresis Curve Results ■2.5 Y-Direction Hysteresis Curve Results ■2.6 Current Waveform Results *For more details, please refer to the PDF document or feel free to contact us.

• PM motor

An example of analysis using a model of non-oriented electrical steel sheet shaped into a ring is presented!

This document presents an analysis example using a model of isotropic electromagnetic steel plates shaped into a ring. It provides a detailed explanation of the ring model voltage source, as well as comparison results with measured values of the hysteresis curve. 【Contents】 ■1.1 Analysis Model and Objectives ■1.2 Analysis Conditions and Calculation Time ■1.3 Magnetic Field Distribution and Iron Loss Distribution Results ■1.4 Alternating Magnetic Flux and Rotating Magnetic Field Results ■1.5 Comparison Results with Measured Values of the Hysteresis Curve ■1.6 Current Waveform Results ■1.7 Interface Settings Screen *For more details, please refer to the PDF document or feel free to contact us.

• PM motor

Aiming for low loss, accurately measure the actual state of electromagnetic materials and understand and analyze their vector magnetic properties! Supporting low loss and high efficiency for EV motors and more.

This is an introduction to the next-generation iron loss evaluation method, the "E&S Model." Based on an evaluation method called vector magnetic characteristics, it has become possible to obtain a more detailed analysis of the loss distribution in steel materials compared to conventional methods. It can calculate high-precision magnetic fields, magnetic flux densities, and iron loss distributions that are not achievable with other software. 【Features】 - By considering vector magnetic characteristics, magnetic vectors can be calculated with high precision. - It can compute rotating magnetic fields and hysteresis. - It is designed as an easy-to-use tool specifically for iron loss evaluation. - It includes permanent magnet excitation functionality and torque calculation functionality. *For more details, please contact us or download the PDF.

• Magnetic field analysis/electromagnetic wave analysis

Aiming for low loss, accurately measure the actual state of electromagnetic materials and grasp and analyze their vector magnetic characteristics!

Iron loss evaluation, which has been a bottleneck in motor analysis. Conventional methods only consider iron loss as a function of magnetic flux density, resulting in low accuracy. However, accurately determining the magnetic field and magnetic flux density to calculate iron loss is achieved through "vector magnetic characteristic analysis." This allows for the calculation of high-precision distributions of magnetic fields, magnetic flux densities, and iron losses that are not achievable with other software. Vector magnetic characteristics refer to the properties that take into account the relationship between the magnetic field H and magnetic flux density B of electromagnetic steel materials, considering their direction (vector). The finite element method electromagnetic field simulator that incorporates this characteristic is “μ-E&S.” 【Features】 - High-precision calculation of magnetic field vectors is possible by considering vector magnetic characteristics. - Rotating magnetic fields and hysteresis can be calculated. - It is designed as an easy-to-use tool specifically for iron loss evaluation. *For more details, please request materials or view the PDF data available for download.

• Magnetic field analysis/electromagnetic wave analysis

In civil engineering sites, in addition to construction feasibility and safety, material selection that takes environmental considerations into account is required. Materials used for temporary roads, access roads, heavy machinery work yards, and material storage areas are now focusing not only on traditional steel plates but also on materials that can contribute to reducing environmental impact. Hyper CLT sheets are civil engineering CLT materials made from wooden CLT. Because they utilize wood, they are characterized by their ability to easily connect to proposals that consider site environments, such as CO2 fixation, glare reduction, and noise reduction. The 5×10 sheet weighs about 230 kg, and the 5×20 sheet weighs about 460 kg, making them lightweight and easy to handle even with small machinery, thus helping to reduce the burden of transportation, installation, and removal. Furthermore, they can be used in a wide range of applications as an alternative to steel plates for measures against muddy conditions, ground protection, and ensuring work pathways. In public works, they are also easy to propose as materials that demonstrate the adoption of environmentally friendly materials and ingenuity during construction, which can lead to improved site evaluations. As a registered technology with the Ministry of Land, Infrastructure, Transport and Tourism under NETIS "TH-250021-A," they can also be utilized as materials for proposals on creativity and environmental measures in public works. We recommend them as a new alternative to steel plates for companies considering environmental considerations, NETIS, civil engineering utilization, and civil engineering CLT. Please feel free to consult us.

Hello everyone! We are Nikken Coating Industry Co., Ltd., a specialized manufacturer of contract processing for fluororesin coatings and PEEK coatings. Thank you very much for visiting our booth at the recent "Mechanical Elements Technology Exhibition." Thanks to you, we were able to conclude the event successfully. At the exhibition, we proposed surface treatment solutions for the "five challenges (release, sliding, corrosion resistance, impurity measures, and environmental response)" that arise in manufacturing sites. Were there any technologies that caught your interest? ■ We are currently responding to inquiries made at the venue We are sequentially contacting those who made technical inquiries or requests for prototypes at our booth on the day of the event. If you have requests such as "I would like you to look at additional drawings" or "I need a quote urgently," please feel free to let us know. ■ For those who could not attend the exhibition or missed our booth We also welcome inquiries from customers who could not come to the venue, such as "coating for special shapes that other companies have declined" or "switching from existing coatings." If you have any concerns regarding "surfaces," please feel free to consult or contact us.

The particle visualization technology developed under our brand "ViEST" has a very high level of detection sensitivity that allows for real-time visualization of the suspended and adhered states of micro and nano-sized particles. We are engaged in the sale of visualization systems and contract services for evaluation (investigating particles and airflow in production processes, manufacturing equipment, and factory environments, evaluating the performance of cleaning products, proposing yield improvement measures, etc.) both domestically and internationally. In manufacturing environments, invisible fine foreign substances, dust generation, particle adhesion due to static electricity, and airflow disturbances can lead to quality defects and reduced yield. Our company clarifies these contamination factors through visualization technology and provides consistent support from identifying the source of the problem to considering and confirming improvement measures. Do you have any of the following concerns? - Unable to identify the cause of foreign matter contamination - Want to check airflow and cleanliness in clean rooms - Want to understand dust generation from manufacturing equipment and transport systems - Want to reduce particle adhesion to films and substrates - Want to improve contamination that causes yield reduction

Metal cracks are one of the concerns in equipment maintenance operations. Conventional welding repair methods can alter the base material around the crack due to heat, leading to residual stress and deformation, which always carries the risk of "crack recurrence" or "secondary damage." Hinode Water Supply Equipment Co., Ltd.'s "Mechanical Stitching Method" is a new technique that allows for metal crack repair without applying heat. By using special bolts and reinforcement plates, the crack is physically removed without affecting the base material with heat. Repairs can be made even in environments where open flames cannot be used. Since no heat is applied, the disassembly of equipment is minimized. For more details, please contact us or download the catalog.

Metal cracks are one of the concerns in equipment maintenance operations. Conventional welding repair methods can alter the base material around the crack due to heat, leading to residual stress and deformation, which always carries the risk of "crack recurrence" or "secondary damage." Hinode Water Supply Equipment Co., Ltd.'s "Mechanical Stitching Method" is a new technique that allows for metal crack repair without the application of heat. By using special bolts and reinforcement plates, the crack is physically removed without affecting the base material at all. Repairs can be made even in environments where open flames cannot be used. Since no heat is applied, the disassembly of equipment is minimized. For more details, please contact us or download the catalog.