Michiko Matsuda

Title: Michiko Matsuda: Innovator in Thermoelectric Conversion Materials

Introduction

Michiko Matsuda is a prominent inventor based in Arakawa-ku, Japan. She has made significant contributions to the field of thermoelectric conversion materials, holding a total of 7 patents. Her work focuses on improving the efficiency and cost-effectiveness of thermoelectric materials, which are crucial for energy conversion technologies.

Latest Patents

Matsuda's latest patents include innovative developments in thermoelectric conversion materials and modules. One of her notable inventions is a thermoelectric conversion material that features a sintered body with a skutterudite structure, incorporating elements such as Ce, Mn, Fe, and Sb. This design enhances sinterability while maintaining a practical dimensionless figure-of-merit ZT, ultimately reducing processing costs. Another patent describes a thermoelectric conversion material with a high dimensionless figure of merit ZT, which includes a large number of polycrystalline grains and an intergranular layer with a specific atomic ratio of O to Yb. The manufacturing method she developed involves several steps, including rapid cooling and solidifying of raw materials, followed by heat treatment in controlled atmospheres.

Career Highlights

Throughout her career, Michiko Matsuda has worked with notable companies such as Hitachi Metals, Ltd. and Sumitomo Chemical Company, Limited. Her experience in these organizations has allowed her to refine her expertise in thermoelectric materials and contribute to advancements in the field.

Collaborations

Matsuda has collaborated with esteemed colleagues, including Hajime Fujikura and Taichiroo Konno. These partnerships have fostered innovation and have been instrumental in her research and development efforts.

Conclusion

Michiko Matsuda's contributions to thermoelectric conversion materials exemplify her dedication to innovation and efficiency in energy technologies. Her patents and collaborations highlight her significant impact on the field, making her a key figure in advancing thermoelectric materials.