This inventor holds 1 USPTO granted patent and 1 published patent application. Top assignee: Other. Active years: 2008.
Company Filing History:
Years Active: 2008
Title: The Innovations of Jonathan Naughton
Introduction
Jonathan Naughton is an accomplished inventor based in Laramie, Wyoming. He has made significant contributions to the field of fluid dynamics through his innovative patent. His work focuses on the measurement of wall shear stress due to fluid flow, which has important applications in various engineering fields.
Latest Patents
Naughton's most notable patent is titled "Oscillatory motion based measurement method and sensor for measuring wall shear stress due to fluid flow." This patent describes a shear stress sensor designed to measure fluid wall shear stress on a test surface. The sensor consists of an active sensing surface and a sensor body, with an elastic mechanism that allows movement between the two components. A driving mechanism enables the sensor to oscillate, while a measuring mechanism tracks the displacement of the active sensing surface relative to the sensor body. The device can operate under both periodic and non-periodic excitation, allowing it to adapt to changes in fluid properties or flow conditions.
Career Highlights
Throughout his career, Jonathan Naughton has demonstrated a commitment to advancing measurement technologies. His innovative approach to sensor design has positioned him as a key figure in the field of fluid dynamics. With a total of 1 patent, Naughton continues to explore new methodologies for improving measurement accuracy and efficiency.
Collaborations
Naughton has collaborated with notable colleagues, including William D. Armstrong and William R. Lindberg. These partnerships have fostered a collaborative environment that encourages the exchange of ideas and expertise in the field.
Conclusion
Jonathan Naughton's contributions to the field of fluid dynamics through his innovative patent highlight his dedication to advancing measurement technologies. His work not only enhances our understanding of fluid behavior but also paves the way for future innovations in sensor design.