Yusuke Taguchi

Title: Yusuke Taguchi: Innovator in High-Speed Communication Technologies

Introduction

Yusuke Taguchi is a prominent inventor based in Annaka, Japan, known for his significant contributions to the field of high-speed communication technologies. With a total of 17 patents to his name, Taguchi has made remarkable advancements in the development of low dielectric substrates that enhance communication efficiency.

Latest Patents

One of Taguchi's latest patents is a low dielectric substrate for high-speed millimeter-wave communication. This innovative substrate includes a quartz glass cloth with a dielectric loss tangent ranging from 0.0001 to 0.0015 and a dielectric constant between 3.0 and 3.8 at 10 GHz. Additionally, it incorporates an organic resin that maintains a dielectric loss tangent within 80% to 150% of the quartz glass cloth's loss tangent at 10 GHz. This invention ensures stable signal transmission with excellent quality, even in the presence of uneven resin distribution. Another notable patent is a resin substrate characterized by dielectric properties with minimal frequency dependence. This substrate combines an organic resin and quartz glass cloth, achieving a dielectric loss tangent of 0.0001 to 0.0020 at 10 GHz, which is crucial for high-frequency applications.

Career Highlights

Throughout his career, Yusuke Taguchi has worked with leading companies in the industry, including Shin-Etsu Chemical Co., Ltd. and Nichia Corporation. His experience in these organizations has significantly influenced his innovative approach to developing advanced materials for communication technologies.

Collaborations

Taguchi has collaborated with notable colleagues such as Toshio Shiobara and Junichi Sawada, contributing to the advancement of technology in their respective fields.

Conclusion

Yusuke Taguchi's work in developing low dielectric substrates has positioned him as a key figure in the realm of high-speed communication technologies. His innovative patents continue to pave the way for advancements in efficient communication systems.