Location History:
- Santa Clara County, CA (US) (1994)
- Camarillo, CA (US) (2000 - 2001)
Company Filing History:
Years Active: 1994-2001
Title: Tien Q Le: Innovator in Microactuator Technology
Introduction
Tien Q Le is a prominent inventor based in Camarillo, California. He has made significant contributions to the field of microactuator technology, holding a total of 3 patents. His work primarily focuses on enhancing the precision and efficiency of actuator systems used in various applications.
Latest Patents
One of Tien Q Le's latest patents is a method of making an actuator arm integrated piezoelectric microactuator. This innovative system is designed for positioning a transducing head in a disc drive device over a selected track of a rotatable disc. The actuator arm is rotatable about an axis and is connected to a head suspension mechanism. A slider carrying a transducing head is supported by this mechanism. The system employs a low-resolution motor to move the actuator arm for coarse movement between tracks of the disc. Additionally, a piezoelectric element is embedded in the actuator arm to allow for fine positioning of the head. Control circuitry is utilized to distribute electrical signals to both the low-resolution motor and the piezoelectric element, enabling selective control of their movements.
Career Highlights
Tien Q Le is currently employed at Seagate Technology Incorporated, where he continues to develop cutting-edge technologies in the field of data storage. His expertise in microactuator systems has positioned him as a key player in advancing the capabilities of disc drive devices.
Collaborations
Throughout his career, Tien Q Le has collaborated with notable colleagues, including Khosrow Mohajerani and Joseph M Sampietro. These partnerships have fostered innovation and contributed to the successful development of various technologies.
Conclusion
In summary, Tien Q Le is a distinguished inventor whose work in microactuator technology has led to significant advancements in the field. His contributions continue to impact the efficiency and precision of actuator systems in modern applications.