Richard W Smith

Title: Innovations of Richard W. Smith in Carbon-Carbon Composites

Introduction

Richard W. Smith is an accomplished inventor based in Marcellus, MI (US). He has made significant contributions to the field of materials science, particularly in the development of innovative solutions for carbon-carbon composites. His work has led to the creation of a unique patent that addresses the challenges associated with applying antioxidants to brake discs.

Latest Patents

Richard W. Smith holds a patent titled "Airflow masking of carbon-carbon composites for application of antioxidants." This invention involves a mask designed for coating a carbon-carbon composite brake disc with an anti-oxidant. The mask is constructed from either carbon-carbon composite material or nonreactive ceramic material. It features edge ridges aligned with the outer and inner annular diameters of the brake disc, a gas flow channel between the ridges, and a gas access port that facilitates gas entry into the channel. Additionally, the mask may include a gas exit port with a valve to regulate gas flow based on pressure conditions. This innovative approach allows for the effective application of liquid antioxidant material without contaminating the friction surface of the brake disc.

Career Highlights

Richard W. Smith is currently employed at Honeywell International Inc., where he continues to advance his research and development efforts. His work has garnered attention for its practical applications in enhancing the performance and longevity of carbon-carbon composite materials.

Collaborations

Throughout his career, Richard has collaborated with notable colleagues, including Allen Simpson and David R. Cole. These partnerships have contributed to the successful development and implementation of his innovative ideas.

Conclusion

Richard W. Smith's contributions to the field of carbon-carbon composites exemplify the impact of innovation in engineering and materials science. His patent for airflow masking demonstrates a forward-thinking approach to solving complex problems in brake disc technology.