This inventor holds 1 USPTO granted patent. Top assignee: General Electric Company. Active years: 2016.
Company Filing History:
Years Active: 2016
Title: Innovations of Rose Denning
Introduction
Rose Denning is an accomplished inventor based in Erie, PA (US). She has made significant contributions to the field of engineering, particularly in the area of exhaust gas recirculation systems. Her innovative approach has led to the development of a patented method that enhances engine efficiency and performance.
Latest Patents
Rose Denning holds a patent for "Methods and system for controlling exhaust backflow." This invention provides various methods and systems for blocking backflow of exhaust through an exhaust gas recirculation system. In one embodiment, the method involves flowing exhaust gas through an exhaust gas recirculation (EGR) passage in a first direction from at least a first cylinder group of an engine to the intake manifold. The exhaust gas flows through a filter arranged in the EGR passage before reaching the intake manifold. Additionally, the invention includes a mechanical one-way valve positioned in the EGR passage between the filter and the intake manifold, which blocks the flow of gas through the filter in the opposite direction.
Career Highlights
Rose Denning is currently employed at General Electric Company, where she continues to innovate and develop new technologies. Her work has been instrumental in advancing the efficiency of engine systems, contributing to the overall improvement of automotive technology.
Collaborations
Rose has collaborated with notable colleagues, including Eric David Peters and Nicholas Eric Hansen. Their combined expertise has fostered a creative environment that encourages innovative solutions in engineering.
Conclusion
Rose Denning's contributions to the field of engineering through her patent and work at General Electric Company highlight her role as a leading inventor. Her innovative methods for controlling exhaust backflow demonstrate her commitment to enhancing engine performance and efficiency.
