This inventor holds 1 USPTO granted patent and 2 published patent applications. Top assignee: Corning Incorporated. Active years: 2026.
Company Filing History:
Years Active: 2026
Title: Patrick Michael Thornton: Innovator in Glass-Based Article Manufacturing
Introduction
Patrick Michael Thornton is a notable inventor based in Corning, NY (US). He has made significant contributions to the field of glass manufacturing, particularly through his innovative methods for forming glass-based articles. His work has been recognized for its potential to enhance production efficiency and product quality.
Latest Patents
Thornton holds a patent for an "Apparatus and methods for sequential pressing to form glass-based articles." This patent describes a method of forming a glass-based article by depositing molten glass onto a first molding member. The process involves pressing the molten glass between the first and second molding members by moving them towards one another. The method includes creating reduced-area pressing zones to effectively compress the molten glass, ensuring precision in the final product.
Career Highlights
Patrick Michael Thornton is associated with Corning Incorporated, a leading company in glass and ceramics technology. His work at Corning has allowed him to explore innovative solutions that push the boundaries of glass manufacturing. With a focus on efficiency and quality, Thornton's contributions are vital to the company's ongoing success in the industry.
Collaborations
Thornton collaborates with Steven Roy Burdette, leveraging their combined expertise to advance glass manufacturing techniques. Their partnership exemplifies the importance of teamwork in driving innovation within the field.
Conclusion
Patrick Michael Thornton's innovative approach to glass manufacturing has led to significant advancements in the industry. His patent and collaboration with fellow inventor Steven Roy Burdette highlight the importance of creativity and teamwork in developing new technologies. Thornton's contributions continue to shape the future of glass-based article production.