Taiwanese magnet manufacturer Shin Qi Industrial will exhibit at the "Mfair Bangkok" 2016 manufacturing trade fair.

It is a low-cost magnet with a high degree of shape freedom.

Rubber magnets are magnets formed by mixing permanent magnet powder (ferrite or neodymium) with synthetic rubber. They are flexible, and there are two manufacturing methods: compression molding and injection molding. They have a high degree of shape freedom and are used not only for educational materials, stationery, and decorations but also in industrial applications such as small motors, cooling fans, and motor rotors. 【Features】 - A mixture of ferrite or neodymium permanent magnet powder and synthetic rubber. - Generally available in strip or sheet form. - Isotropic rubber magnets can be magnetized in multiple poles. - Operating temperature ranges from minus 40 degrees to 100 degrees. - They have a wide range of applications, including small motors, cooling fans, motor rotors, stationery caps, advertising decorations, and refrigerator seals. We have Japanese staff available. Please feel free to contact us for more details about our products.

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It is a magnet with the best temperature characteristics.

Alnico magnets are metal magnets primarily composed of aluminum, nickel, cobalt, and iron. They have excellent properties in relation to temperature and remain stable even at operating temperatures of 500°C. They are suitable for specialized industries such as chemistry and aerospace defense. There are two types of alnico magnets based on their shape: sintered alnico magnets and cast alnico magnets. The former is used for smaller craft applications, while the latter is suitable for high-precision complex designs. They can also be combined with plastics and metals for special applications. 【Features】 - Excellent temperature and corrosion resistance, stable even at operating temperatures of 500°C. - There are two types based on shape: sintered alnico magnets and cast alnico magnets. The former is used for smaller craft applications, while the latter is suitable for high-precision complex designs. - The magnetic retention is relatively low, making them susceptible to demagnetization from external shocks. However, they can be magnetized again. - They can be adapted for use in automotive parts, microphones, radar, meters, aerospace equipment, sensors, etc. We have Japanese staff available. Please feel free to contact us for more details about the products.

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It is a magnet with excellent temperature characteristics, strong magnetic force, and resistance to rust.

This is a rare earth magnet composed of samarium and cobalt. It has excellent temperature characteristics and stability even in high-temperature working environments. In working environments ranging from 250°C to 350°C, the maximum energy value reaches 29-32 MGOe. It also has high corrosion resistance, so surface treatments such as plating are unnecessary. 【Features】 ● It is ideal for applications requiring temperature stability and high-temperature conditions (250-350°C) due to its excellent temperature characteristics. ● It is more resistant to thermal demagnetization compared to neodymium magnets, demonstrating its superiority in high-temperature working environments. ● It is resistant to rust, so surface treatments such as plating are generally unnecessary. ● There are Sm2Co5 and Sm2Co17 systems with different composition ratios; the latter has better heat resistance and magnetic strength and can be adapted for machining. The former is relatively unsuitable for special shapes. ● It is widely used in precision instruments for special applications, aerospace and military parts, as well as medical devices like MRI machines, radar equipment, high-precision electronics, and stirrers. We have Japanese staff available. Please feel free to contact us for more details about the products.

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It is the most cost-effective and easy-to-process magnet in terms of usage.

This is a magnet made by injection molding a mixture of magnetic powder and thermoplastic elastomer resins (PA6, PA12, PPS). It allows for integrated molding with components such as motor shafts and yoke materials, thereby eliminating complex processes after molding. While ferrite types are common, there are also strong neodymium and samarium-cobalt types available. There are many types of binders used as well. The maximum heat resistance temperature is 235 degrees. 【Features】 ● Bonded magnets can be molded into thin shapes or any shape, and radial magnetization or multipole magnetization is also possible. ● Integrated molding with motor shafts and yoke materials eliminates complex processes after molding. ● Due to high dimensional accuracy, finishing processes are unnecessary, and performance is stable. They are widely used in automated equipment, stepping motors, air conditioners, automatic sensors, meters, brushless motors, and high-performance home appliances and electrical equipment. We have Japanese staff available. Please feel free to contact us for more details about the products.

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It is a low-cost magnet with excellent heat resistance.

Ferrite magnets (ceramic magnets) are permanent magnets made primarily by mixing iron (Fe2O3) and oxides (SrCO3) and sintering them at high temperatures. They can be mass-produced using molds at a low cost. They have excellent corrosion resistance and are suitable for use in harsh environments. Currently, they are the most widely used in the electrical industry. 【Features】 ● Custom shapes can be made at a low cost. ● They have excellent heat and corrosion resistance, are produced in large quantities, and are widely applied. ● They are brittle, so care is needed when handling them. ● Sintered ferrite magnets have relatively large tolerances due to the manufacturing process, typically +/- 2%. ● They are widely used in acoustic equipment, general electrical applications, automotive motors, general-purpose motors, and eco-industries. Examples include speakers, DC motors, air conditioner compressors, and wind power drive motors. We have Japanese staff available. Please feel free to contact us for more details about our products.

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It is a magnet with high dimensional accuracy that is less likely to crack.

This is a neodymium bonded magnet made by compressing MQ powder, which is produced using the rapid cooling solidification method, with resin. It offers high freedom of shape, allowing for thin ring shapes, and has high dimensional accuracy. It is isotropic with no restrictions on the magnetization direction, making it suitable for multi-pole magnetization designs. 【Features】 ● Can be molded into any shape due to compression molding; mold costs are relatively low. ● Isotropic, allowing for multi-pole magnetization after surface coating. ● Magnetic strength is weaker than neodymium magnets but stronger than ferrite magnets. ● Used in digital devices that require compact, thin, high-performance magnets. It is widely used in IT-related and electronic components such as mobile phones, meters, sensors, and HDD motors. Recently, applications in automotive parts have been observed. We have Japanese staff available. Please feel free to contact us for more details about the products.

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The most powerful magnet. It enables miniaturization and high performance of products.

This is a rare earth magnet primarily composed of neodymium, iron, and boron. 【Features】 ● The magnetic energy is the highest among existing magnets, offering wide versatility, and custom shapes such as complex sizes are possible. ● It is prone to rust, so it is generally nickel-plated on the surface. ● Utilizing the characteristics of the strongest magnets allows for miniaturization and high performance of products. * Caution is needed regarding thermal demagnetization due to temperature. We have Japanese staff available. Please feel free to contact us for more details about the products.

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[Speaker] Daisuke Imaizumi, President and CEO, Infra Commons Inc. [Key Lecture Content] The "Software-Defined Warfare" led by the U.S. Department of Defense is establishing a new model of warfare centered on AI, autonomous drones, and real-time command and control. This seminar will explain the U.S. strategic shifts, including the Replicator concept, JADC2, and the rise of Palantir and Anduril, while delving into the essence of the structural transformation facing Japan's defense industry. Through the establishment of Anduril's Japanese subsidiary, the "purely domestic drone" concept, and Palantir's data infrastructure and generative AI deployment, we will present how companies like Mitsubishi Heavy Industries, Kawasaki Heavy Industries, Fujitsu, and NEC can play a central role in Japan-U.S. collaboration. We will provide practical insights for existing industries to carve out paths as "co-creation partners" rather than "enemies" in the AI and software-driven era. This is a must-see lecture for rethinking the future of the defense industry.

[Key Lecture Content] 1. Quantum Technology Opening the Future: The Cutting Edge of Quantum Communication Promoted by the Ministry of Internal Affairs and Communications Yuichiro Yano, Deputy Director, Research Promotion Office, Technology Policy Division, International Strategy Bureau, Ministry of Internal Affairs and Communications 1. Basics of Quantum Technology and the Role of the Ministry of Internal Affairs and Communications 2. The Future Brought by Quantum Technology and Government Strategy 3. Research and Development and Quantum Security Bases 4. Social Implementation of Quantum Technology and Use Cases 5. International Initiatives and Future Prospects 6. Q&A / Business Card Exchange 2. The Value and Potential of Quantum Cryptography in the Post-Quantum Era Go Kato, Director, Quantum ICT Research Laboratory, Future ICT Research Institute, National Institute of Information and Communications Technology 1. The Origin of the Security of Quantum Cryptography 2. Current Status of Quantum Cryptography Devices 3. Current Issues and Potential of Quantum Cryptography Technology 4. Long-term Prospects for Future Technological Development of Quantum Cryptography 5. Q&A / Business Card Exchange

[Key Lecture Content] 1. Trends and Future Prospects of Physical AI Hiroshi Kondo, Deputy Director and Expert, Advanced Technology Lab, Japan Research Institute, Ltd. 1. What is Physical AI? 2. Technological trends of generative AI behind Physical AI 3. Examples and research trends of Physical AI 4. Future prospects 5. Q&A / Business card exchange 2. The Future Opened by Physical AI: NVIDIA's Initiatives and Prospects Ken Arai, Senior Manager, Robotics Developer Relations, Enterprise Business Division, NVIDIA Corporation 1. What does NVIDIA perceive as "Physical AI"? 2. Accelerated computing supporting technological evolution 3. The role of digital twins and the importance of synthetic data generation 4. Learning and inference of Physical AI models 5. Implementation examples of Physical AI 6. Q&A / Business card exchange

We are pleased to announce the archive distribution of our seminar titled "New Plan 'Mojitori Plus' Debuts! From Paper to Data! The First Step in Internal DX with Mojitori." 'Mojitori' allows you to convert text from photos, images, PDF files, and more into data, automatically inputting it into various fields in kintone. In this seminar, we will clearly explain the basic functions and usage of Mojitori. Additionally, we will provide detailed explanations about the Plus plan and the document-focused Mojitori, which were added in the major update in November. 【Recommended for】 - Those who are struggling with frequent transcription errors due to manual data entry. - Those who wish to digitize documents currently stored on paper. 【Timetable】 - Overview of Mojitori's functions - Overview of Mojitori Plus's functions - Details and pricing of each plan - Q&A session We look forward to your registration.

Innovating material development at the nano level through high-speed molecular simulation and machine learning With the advancement of molecular simulation technology, it has become possible to handle nano-level phenomena through computer simulations. Additionally, the combination of simulation and machine learning is expanding the range of possibilities. Schrödinger supports the enhancement of analytical power, efficiency, and reduction of development time in your material development using the latest molecular simulation and machine learning technologies, as well as techniques that integrate both. At our exhibition booth, specialized technicians will explain the latest technologies and answer questions from attendees. *During the event, we will hold a seminar at our booth. Theme: "Seeing Inside Materials at the Nano Level" - New Material Development through Simulation and Machine Learning We will introduce examples of predicting physical property values of various materials on a computer. You can experience each software firsthand. 【Exhibition Information】 Exhibition Name: nano tech Dates: January 28-30, 2026 Venue: Tokyo Big Sight, West Hall 3 Booth Number: 3W-H07 Exhibition Zone: [Materials] Material Zone