Location History:
- Saitama, JP (1991)
- Utsunomiya, JP (1992)
Company Filing History:
Years Active: 1991-1992
Title: Hidenori Kanno: Innovator in Material Science
Introduction
Hidenori Kanno is a notable inventor based in Saitama, Japan. He has made significant contributions to the field of material science, particularly in the development of innovative solutions that enhance the durability and performance of aluminum and rubber materials. With a total of 2 patents, Kanno's work reflects a deep understanding of the interactions between different materials.
Latest Patents
Kanno's latest patents include a method for combining a rubber member with an aluminum alloy member. This invention addresses the issue of corrosion that occurs when these materials come into contact in the presence of an electrolytic solution. By selecting a surface resistivity of the rubber member at 10^6 Ω or higher, and preferably at 10^7 Ω or higher, the corrosion of the aluminum alloy member can be effectively suppressed. Another significant patent involves a paint film structure designed for aluminum members. This structure consists of a first paint film layer and a second paint film layer, both primarily composed of colloidal silica and organoalkoxysilane. The unique composition of these layers enhances the protective qualities of the paint film on aluminum surfaces.
Career Highlights
Throughout his career, Hidenori Kanno has worked with prominent companies such as Honda and Asahi Steel Corporation. His experience in these organizations has allowed him to apply his innovative ideas in practical settings, contributing to advancements in material technology.
Collaborations
Kanno has collaborated with esteemed colleagues, including Eiji Suzuki and Toshiya Nishino. These partnerships have fostered a creative environment that has led to the development of groundbreaking inventions.
Conclusion
Hidenori Kanno's contributions to material science through his patents and collaborations highlight his role as a key innovator in the industry. His work continues to influence the development of more durable and efficient materials.