This inventor holds 5 USPTO granted patents. Top assignees: Siemens Westinghouse Power Corporation, Siemens Energy, Inc., Siemens Power Generation, Inc.. Active years: 2004-2009.
Company Filing History:



Years Active: 2004-2009
Title: The Innovative Contributions of Satish B Gadde
Introduction
Satish B Gadde is a notable inventor based in Orlando, FL (US), recognized for his significant contributions to the field of gas turbine technology. With a total of 5 patents to his name, Gadde has developed innovative methods that enhance the efficiency and performance of gas turbine engines.
Latest Patents
One of Gadde's latest patents is focused on fuel control for starting a gas turbine engine. This method involves controlling fuel flow to a combustor during the engine's startup phase. It includes determining a relationship between the fuel flow and valve position for a flow control valve based on real-time parameters of the fuel. The process ensures that the fuel flow is optimized for effective combustion.
Another significant patent by Gadde is a method of controlling a power generation system. This method regulates the inlet guide vane position to maintain the turbine exhaust temperature at a corrected value. It takes into account the compressor inlet temperature and turbine normalized load, ensuring that the engine operates within safe limits while preventing excessive emissions.
Career Highlights
Throughout his career, Satish B Gadde has worked with prominent companies such as Siemens Westinghouse Power Corporation and Siemens Energy, Inc. His experience in these organizations has allowed him to contribute to advancements in power generation technologies.
Collaborations
Gadde has collaborated with esteemed colleagues, including Jatinder P Singh and Joseph L Kollar, further enhancing the innovative work in the field of gas turbines.
Conclusion
Satish B Gadde's contributions to gas turbine technology through his patents and career achievements highlight his role as a significant inventor in the industry. His innovative methods continue to influence the efficiency and performance of gas turbine systems.