Finkl Steel Jul 2017 - Dec 2017
Qms Auditor
Ge Renewable Energy Jun 2016 - May 2017
Quality Auditor - Rehired Pensioner
Ge Oil & Gas Apr 2011 - May 2015
Quality Leader - Acquisition Integration
Ge Jan 2005 - Mar 2011
Global Audit Manager
Ge Power Aug 2001 - Dec 2004
Engineering Program Manager
Education:
North Carolina State University 1977 - 1981
Bachelors, Engineering
Tuscola High School
Old Dominion University
Marquette University
Skills:
Quality Assurance Research Strategic Planning Manufacturing Training Quality System Quality Auditing Six Sigma Continuous Improvement Auditing Engineering Negotiation Quality Control Iso Root Cause Analysis Process Engineering Cross Functional Team Leadership Quality Management Dmaic
GE Energy - Greenville, SC since Apr 2011
Acquisition Integration Leader
GE Energy - Greenville, SC Jan 2005 - Mar 2011
Global Audit Manager
GE Power Systems - Greenville, SC Aug 2001 - Dec 2004
Engineering Programs Manager
GE Power Systems - Atlanta, GA Jan 2001 - Aug 2001
Energy Rentals Quality Leader
GE Power Systems - Greenville, SC Mar 1999 - Jan 2001
Sourcing Quality Leader
Education:
North Carolina State University 1977 - 1981
Bachelor of Science (BS), Engineering Operations
Us Patents
Process For Corrosion Protection Of Turbine Internal Components
Glenn Medford - Duncan SC, US Billy Paderick - Seven Springs NC, US Joseph Hirtz - West Point VA, US Robert Cardin - Greenville SC, US
International Classification:
B05D 7/22
US Classification:
427237000
Abstract:
A method and system of applying a corrosion inhibitor to the interior component parts of a turbine to provide corrosion protection to the components is disclosed. The intake and exhaust openings in the turbine are sealed using plastic and/or metal covers to contain the corrosion inhibitor inside the turbine. An air horn connected to an outlet vent in one of the covers induces air into and from the turbine's interior. A fog of corrosion inhibitor is introduced into the turbine through at least one inlet vent in a different cover located diagonally at an opposite end of the turbine. A sprayer is used for introducing the corrosion inhibitor into the inlet vent while the air horn is operating so that the corrosion inhibitor is caused to be drawn into and through the interior of the turbine to coat the interior component parts of the turbine. The corrosion inhibitor is introduced into the inlet vent until the corrosion inhibitor coats all exposed surfaces of the components inside turbine. The selection of vents as inlet and outlet vents and the positioning of the air horn and sprayer are then altered to allow a reverse flow of the fog to again saturate the turbine internals with corrosion inhibitor. All openings in turbine are subsequently sealed to contain the corrosion inhibitor inside the turbine.