Location History:
- Tel Aviv, IL (2003 - 2014)
- Rehovot, IL (2016)
Company Filing History:
Years Active: 2003-2016
Title: Zvi Kam: Innovator in Proteasome Inhibitors and Optical Aberration Correction
Introduction
Zvi Kam is a prominent inventor based in Tel Aviv, Israel. He has made significant contributions to the fields of biochemistry and optical engineering. With a total of 8 patents, his work has advanced the understanding and application of proteasome inhibitors and optical devices.
Latest Patents
One of Kam's latest patents is focused on proteasome inhibitors and their therapeutic uses. This method involves administering a compound that binds to a proteasome, utilizing copper to interact with specific cysteine residues in the proteasome's subunits. This innovative approach offers a potential treatment for diseases where proteasome inhibition is beneficial.
Another notable patent is a method and apparatus for correcting optical aberrations using a deformable mirror. This invention allows for the correction of optical aberrations in various optical devices by applying a deforming force through an actuator. The flexibility of the deformable mirror can be adjusted to suit different optical applications, enhancing the performance of devices such as microscopes and optical read/write systems.
Career Highlights
Zvi Kam has worked with esteemed organizations, including Yeda Research and Development Company and the University of California. His experience in these institutions has contributed to his innovative research and development efforts.
Collaborations
Throughout his career, Kam has collaborated with notable individuals such as John W. Sedat and David A. Agard. These partnerships have fostered a collaborative environment that has led to significant advancements in their respective fields.
Conclusion
Zvi Kam's contributions to the fields of proteasome inhibitors and optical engineering demonstrate his innovative spirit and dedication to advancing technology. His patents reflect a commitment to improving therapeutic methods and optical device performance.