Company Filing History:
Years Active: 2000-2004
Title: The Innovative Contributions of Denis Menard
Introduction
Denis Menard is a notable inventor based in Limoges, France. He has made significant contributions to the field of friction materials, holding a total of 5 patents. His work focuses on enhancing the performance and efficiency of devices that utilize friction in liquid mediums.
Latest Patents
Among his latest patents, Denis has developed a friction material designed for fitting to devices employing friction in a liquid medium. This innovation includes a method of producing such a friction material and the device to which it is fitted. Another notable patent involves a friction liner that features a network of grooves specifically designed for a clutch. Additionally, he has worked on a torque converter that includes a bridging clutch with an annular friction liner, which engages axially against a reaction surface of the clutch. The liner is crafted in the form of an annular ring, complete with a friction surface, outer perimeter, and inner perimeter. The network of grooves formed in the friction surface allows liquid to flow between the liner and the reaction surface, enhancing the overall functionality of the device.
Career Highlights
Denis Menard has had a distinguished career, working with prominent companies such as Valeo Corporation and Valeo Matériaux de Friction. His expertise in friction materials has positioned him as a key player in the industry, contributing to advancements that improve the performance of various mechanical systems.
Collaborations
Throughout his career, Denis has collaborated with talented individuals, including Philippe Luquet and Richard Guerin. These partnerships have fostered innovation and have been instrumental in the development of his patented technologies.
Conclusion
Denis Menard's contributions to the field of friction materials are noteworthy and impactful. His innovative patents and collaborations reflect his commitment to advancing technology in this area. His work continues to influence the design and functionality of devices that rely on friction in liquid mediums.