Company Filing History:
Years Active: 2019-2024
Title: Takayuki Azuma: Innovator in Machining Technology
Introduction
Takayuki Azuma is a prominent inventor based in Anjo, Japan. He has made significant contributions to the field of machining technology, holding a total of 4 patents. His innovative work focuses on enhancing machining processes through advanced systems and methods.
Latest Patents
One of Azuma's latest patents is the "Machining Assist System and Cutting Apparatus." This system includes a knowledge database that stores various pieces of information indicative of know-how concerning machining methods and facilities. The system features a receiver that accepts questions, a control unit that executes solvers to search the knowledge database, and a display that presents the derived responses. The responses include multiple measures, assigned priorities, and progress information, visually represented on the display.
Another notable patent is the "Cutting Device and Cutting Method." This invention involves performing cutting machining on a workpiece by making a cutting tool travel relative to it while rotating. The cutting tool's peripheral speed is maintained at or above the cutting speed, utilizing its outer peripheral surface and end surface as rake and relief surfaces, respectively.
Career Highlights
Takayuki Azuma is currently associated with Jtekt Corporation, where he continues to innovate and develop advanced machining technologies. His work has significantly impacted the efficiency and effectiveness of machining processes in various applications.
Collaborations
Azuma collaborates with talented individuals in his field, including coworkers Yoshihiko Yamada and Hiroshi Watanabe. Their combined expertise contributes to the advancement of machining technologies and the successful implementation of innovative solutions.
Conclusion
Takayuki Azuma's contributions to machining technology through his patents and collaborations highlight his role as a leading inventor in the industry. His innovative systems and methods continue to shape the future of machining processes.