This inventor holds 1 USPTO granted patent and 1 EPO patent. Top assignee: Dresser-Rand Company. Active years: 2010.
Company Filing History:
Years Active: 2010
Title: Lingzhi Wang: Innovator in Turbomachinery Technology
Introduction
Lingzhi Wang is a notable inventor based in York, PA (US). She has made significant contributions to the field of turbomachinery, particularly with her innovative designs that enhance the efficiency and safety of high-pressure systems. Her work is recognized for its technical depth and practical applications in the industry.
Latest Patents
Lingzhi Wang holds a patent for a "Closure device for a turbomachine casing." This invention addresses the challenges associated with high-pressure turbomachines. The patent describes a closure device that engages with the casing of a turbomachine, featuring a body with an inner circumferential overlap surface that defines an opening. This design allows the closure body to receive a portion of the casing's annular wall section, effectively sealing the casing opening. The closure body is engineered to minimize or prevent radial expansion of the casing wall when subjected to high-pressure fluid, ensuring the integrity and performance of the turbomachine.
Career Highlights
Lingzhi Wang is currently employed at Dresser-Rand Company, where she continues to innovate and develop advanced technologies in the field of turbomachinery. Her expertise and dedication have made her a valuable asset to her team and the company as a whole.
Collaborations
Lingzhi has collaborated with her coworker, David James Peer, to further enhance their projects and drive innovation within their field. Their teamwork exemplifies the importance of collaboration in achieving groundbreaking advancements in technology.
Conclusion
Lingzhi Wang's contributions to turbomachinery technology through her patent and work at Dresser-Rand Company highlight her role as a leading inventor in her field. Her innovative designs continue to push the boundaries of engineering and improve the efficiency of high-pressure systems.
