Kirby Wayne Crosby

Introduction

Kirby Wayne Crosby, a talented inventor based in Norwood, CA, has made a notable contribution to the field of handrail technology through her innovative approach to forming spliced joints. With a focus on improving the structural integrity and design versatility of handrails, Kirby has patented a unique method that reflects her ingenuity and dedication to innovation.

Latest Patents

Kirby's patent, titled "Method of forming a spliced joint in a handrail or other elongate article," involves a sophisticated design of a handrail featuring a thermoplastic body with a C-shaped cross-section. This method incorporates a stretch inhibitor and a slider fabric layer, allowing for enhanced connection between handrail sections.

The process includes strategically cutting the thermoplastic body to separate the top section from the base section, followed by removing shoulder portions to create a central section that accommodates precise fitting. The forward parts are then shaped and assembled to create a robust spliced joint suitable for molding, showcasing Kirby's innovative mindset and technical skills.

Career Highlights

Currently, Kirby is employed at EHC Canada, Inc., where she continues to push the boundaries of product development and engineering. Her patent not only signals her commitment to advancing handrail technology but also highlights her ability to address practical challenges within the industry.

Collaborations

Throughout her career, Kirby has worked alongside talented professionals such as Jason Wong and Reginald Anthony Butwell. Their collaborative efforts have fostered a dynamic work environment focused on innovation and improvement within their projects, further enabling the development of cutting-edge solutions in handrail design.

Conclusion

Kirby Wayne Crosby stands out as an inventor dedicated to crafting innovative solutions in the realm of handrail technology. With her patented method of forming spliced joints, Kirby exemplifies the spirit of ingenuity that drives progress in engineering and design. Her contributions not only enhance functionality but also inspire future advancements within the industry.