Gary A Faguy

Title: Innovations by Gary A. Faguy

Introduction

Gary A. Faguy is a notable inventor based in Hamilton, Canada. He has made significant contributions to the field of paper handling technology, holding a total of 7 patents. His work primarily focuses on improving the efficiency and effectiveness of paper feeding mechanisms.

Latest Patents

One of his latest inventions is a paper feeder that employs a retard roll mounted on a shaft controlled by a magneto rheological variable clutch. This innovative design allows for the adjustment of current to the clutch, producing a variable drag torque that can range from near zero to fully locked. The current is modified based on various inputs, including media type, temperature, humidity, media size, and transport speed. This variable drag on the retard roll minimizes induced skew of sheets passing through the nip formed between the retard roll and a separation roll, resulting in less and more consistent wear of the retard roll. Another significant invention is the multi-sectioned paper handling tire, which features at least three elastomeric materials mounted on a shaft and divided into three or more torus-shaped sections of varied width. This design enhances the latitude of paper handling tires, utilizing combinations of materials such as EPDM, Silicone, and Isoprene.

Career Highlights

Gary A. Faguy is currently employed at Xerox Corporation, where he continues to innovate and develop new technologies in the paper handling sector. His work has been instrumental in advancing the capabilities of paper feeding systems.

Collaborations

Throughout his career, Gary has collaborated with notable colleagues, including Vicente P. Nunes and Petrus T. De Koning. Their combined expertise has contributed to the successful development of various innovative solutions in the industry.

Conclusion

Gary A. Faguy's contributions to paper handling technology through his patents and collaborations highlight his role as a significant inventor in the field. His innovative designs continue to influence the efficiency of paper feeding mechanisms.