PepsiCo at Frito Lay Distribution Center San Diego, CA Jul 2014 to Jan 2015 Fleet Mechanic/Local Fleet ManagerRapid Prep LLC Chula Vista, CA Sep 2012 to Jul 2014 Equipment Mechanic and Technical SupportMinshew Brothers Steel Construction Lakeside, CA Dec 2008 to Aug 2011 Fleet Supervisor/Lead MechanicGeneral Dynamics Land Systems San Diego, CA Jul 2008 to Aug 2008 Mechanical ContractorSouthern California Fleet Services San Diego, CA Sep 2007 to Feb 2008 MechanicPAR Electrical Contractors San Marcos, CA Mar 2007 to Aug 2007 MechanicHawthorne Power Systems San Diego, CA Jan 2007 to Mar 2007 Truck Mechanic
Education:
Wyoming Technical Institute Laramie, WY Dec 2006 Diploma in countryPatrick Henry High School San Diego, CA Jun 2005 Diploma in General
Jan 2012 to 2000 Retail Store ManagerC&C Contractors Aurora, IL Jul 2011 to Dec 2011 ContractorNu Image Marketing San Diego, CA Feb 2010 to Jul 2011 Marketing ManagerUnited States Marine Corps San Diego, CA Jun 2004 to Jun 2009 Helicopter Crew Chief
Education:
College of DuPage Naperville, IL 2009 to 2012 Assoc. in Aeronautical Engineering
Skills:
Time management, mechanical background, quick to learn, attentiveness to details, work ethic, ability to manage, punctual
Tweed Fox - San Diego CA Christopher W. Coyle - Valley Center CA
International Classification:
A63B 6900
US Classification:
702142
Abstract:
A system 20 for measuring the initial velocity vector of a ball 500 includes a first light sensing array 24, a first light source 28, a second light sensing array 30, and a second light source 32. The ball 500 has an initial position 22. When the ball 500 is struck, at time T1 it casts a first shadow position 36 on first light sensing array 24, and at time T2 it casts a second shadow position 42 on second light sensing array 30. A first plane 38 is formed by initial position 22, first light source 28, and first shadow position 36. A second plane 44 is formed by initial position 22, second light source 32, and second shadow position 42. The line of flight 37 of ball 500 is defined by the intersection of planes 38 and 44. A slant distance D. sub. s is determined, whereby the speed S. sub.
Methods And Apparatus For Taking Spectroscopic Measurements Of Sediment Layers Beneath A Body Of Water
Donald C. Rhoads - Falmouth MA Christopher Coyle - San Diego CA Roger Ward - Portmouth RI Gregory Mooradian - Del Mar CA Richard Anderson - San Diego CA
Assignee:
Science Application International Corporation - San Diego CA
International Classification:
G01N 2127 G01N 2164
US Classification:
356 73
Abstract:
A spectrometer system includes a processing center, an underwater remote sensor and a communication link coupled therebetween. The sensor is deployed to at least partially penetrate a sediment layer disposed beneath a body of water. The sensor includes a window defining a sediment window plane through which a profile of the sediment layer is observable and a camera, an image plane of which is a conjugate of the window, the camera imaging light from objects in the sediment window plane to generate imagewise data, the imagewise data being transmitted over the communications link to the processing center. The sensor also includes at least one removable cell disposed in the sediment window plane, each removable cell being comprised of a transparent solid material having a void therein, the void in each removable cell for holding a standard material corresponding to the respective removable cell. The sensor further includes a camera filter device having at least one camera filter. Each camera filter is characterized as passing radiant energy within a corresponding emission band of camera wavelengths, the camera filter device being controllable to select a current camera filter.