Company Filing History:
1 out of 832,891 Years Active: 2003
Title: The Innovative Contributions of Tamio Igarashi
Introduction
Tamio Igarashi is a notable inventor based in Tokyo, Japan. He has made significant contributions to the field of polymer science, particularly in the development of oligomers that enhance the properties of hydrous gels. His work focuses on creating materials that can effectively entrap microorganisms, which has important implications for environmental applications.
Latest Patents
Igarashi holds a patent for "Oligomers for polymerizing to produce hydrous gels entrapping microorganisms." This innovative oligomer features a polyalkylene glycol main structure with polymeric double bond groups at both ends. The design includes sub-structures that lengthen the main structure and are composed of urethane bonds and ethyleneoxy or propyleneoxy. The introduction of urethane bonds enhances the flexibility, strength, and erosion resistance of the resulting hydrous gel. This gel not only increases its capacity to entrap microorganisms but also maintains its strength. The ethyleneoxy component improves the gel's affinity for microorganisms, allowing them to adhere and grow on its surface. This technology has the potential to decompose environmental pollutants effectively.
Career Highlights
Throughout his career, Tamio Igarashi has demonstrated a commitment to advancing polymer technology. His innovative approach to creating hydrous gels has positioned him as a key figure in the field. His work has implications for various applications, including environmental remediation and biotechnology.
Collaborations
Igarashi has collaborated with notable colleagues such as Tatsuo Sumino and Naomichi Mori. These partnerships have contributed to the development and refinement of his innovative ideas and patents.
Conclusion
Tamio Igarashi's contributions to the field of polymer science, particularly through his patented oligomers, showcase his innovative spirit and dedication to addressing environmental challenges. His work continues to influence the development of materials that can effectively interact with microorganisms, paving the way for future advancements in this area.