Atsushi Kaeriyama

Title: Atsushi Kaeriyama: Innovator in Ceramic Materials

Introduction

Atsushi Kaeriyama is a notable inventor based in Minami-ashigara, Japan. He has made significant contributions to the field of ceramic materials, particularly in the development of solid-state cell technologies. With a total of two patents to his name, Kaeriyama's work is paving the way for advancements in energy storage solutions.

Latest Patents

Kaeriyama's latest patents include a ceramic material and its use, which allows for the creation of a pellet with higher density and satisfactory lithium-ion conduction. This ceramic material comprises lithium, lanthanum, zirconium, aluminum, and oxygen, featuring a garnet-type or garnet-like crystal structure. The specific ratio of lithium to lanthanum is crucial, being set between 2.0 and 2.5. His second patent focuses on a method for filling with electrode active material and producing all-solid-state cells. This involves preparing a solid electrolyte structure that contains a porous solid electrolyte, which is immersed in a sol solution containing a precursor of an electrode active material. The process includes heating the solution to evaporate the solvent, allowing the porous solid electrolyte to be filled with a high concentration of the precursor.

Career Highlights

Throughout his career, Atsushi Kaeriyama has worked with prestigious institutions, including Tokyo Metropolitan University and NGK Insulators, Inc. His experience in these organizations has contributed to his expertise in ceramic materials and solid-state technologies.

Collaborations

Kaeriyama has collaborated with notable colleagues such as Kiyoshi Kanamura and Yosuke Sato. These partnerships have further enriched his research and development efforts in the field.

Conclusion

Atsushi Kaeriyama's innovative work in ceramic materials and solid-state cell technologies highlights his significant contributions to the field. His patents reflect a commitment to advancing energy storage solutions, making him a key figure in modern materials science.