Richard William Bruneau

Title: Richard William Bruneau: Innovator in Optical Fiber Technology

Introduction

Richard William Bruneau is a notable inventor based in Apple Valley, MN (US). He has made significant contributions to the field of optical fiber technology. His innovative work has led to the development of a unique patent that enhances the process of fusion splicing optical fibers.

Latest Patents

Richard holds a patent for a "Thermal flash conditioner for fusion splicing; and methods." This patent outlines a method for fusion splicing an optical fiber, which includes several key steps. The process begins with mechanically stripping a coating layer from the optical fiber to create a bare fiber end. The bare fiber end is then inserted into a resistive heating element structure to eliminate any residual coating from the cladding layer. This innovative method ensures that the severed end of the coating layer is fully contained within a cylindrical envelope defined by a non-disturbed portion of the coating layer. Additionally, the method involves loading the optical fiber into an alignment groove of a fiber alignment fixture, ensuring that the shaped severed end is in contact with the alignment groove. Finally, the method culminates in the fusion splicing of the bare fiber end to a cable fiber.

Career Highlights

Richard is currently employed at CommScope Technologies LLC, where he continues to work on advancements in optical fiber technology. His expertise and innovative approach have made him a valuable asset to the company.

Collaborations

Throughout his career, Richard has collaborated with talented individuals such as Scott L Carlson and Paul A Suek. These collaborations have contributed to the development of cutting-edge technologies in the field.

Conclusion

Richard William Bruneau is a distinguished inventor whose work in optical fiber technology has led to significant advancements in the industry. His patent for a thermal flash conditioner exemplifies his innovative spirit and dedication to improving fusion splicing methods.