2013 to 2014 Marketing, Auditing, and Accounting PositionsBare International
2009 to 2010 Sales and Marketing CoordinatorMusicMatters
2008 to 2008 Onsite Promotions TeamFestival of Flowers
2003 to 2008 Delivery CoordinatorArista Associates
2000 to 2002 Web Manager & Administrative Assistant
Education:
University of Maryland University College Adelphi, MD 2014 Master of Science in Human Resources ManagementUniversity of Maryland University College Adelphi, MD 2013 Master of Business Administration in transformational leadershipUniversity of Maryland College Park, MD 2004 Bachelor of Science in Marketing
Jan 2015 to 2000 Student LawyerBaker & Hostetler LLP Philadelphia, PA Aug 2014 to Dec 2014 Co-op Law ClerkDrexel University Office of Technology Commercialization Philadelphia, PA Jun 2014 to Aug 2014 InternUnited States Patent and Trademark Office Alexandria, VA May 2013 to Aug 2013 PEEP Extern
Education:
Earlham College Richmond, IN May 2012 Bachelor of Arts in Computer ScienceDrexel University Thomas R. Kline School of Law Philadelphia, PA Juris Doctor in Intellectual Property
Us Patents
Charged Particle Detectors With Active Detector Surface For Partial Energy Deposition Of The Charged Particles And Related Methods
David W. Gerts - Idaho Falls ID, US Robert S. Bean - Rigby ID, US Richard R. Metcalf - Idaho Falls ID, US
Assignee:
Battelle Energy Alliance, LLC - Idaho Falls ID
International Classification:
G01T 1/24
US Classification:
25037001, 250371
Abstract:
A radiation detector is disclosed. The radiation detector comprises an active detector surface configured to generate charge carriers in response to charged particles associated with incident radiation. The active detector surface is further configured with a sufficient thickness for a partial energy deposition of the charged particles to occur and permit the charged particles to pass through the active detector surface. The radiation detector further comprises a plurality of voltage leads coupled to the active detector surface. The plurality of voltage leads is configured to couple to a voltage source to generate a voltage drop across the active detector surface and to separate the charge carriers into a plurality of electrons and holes for detection. The active detector surface may comprise one or more graphene layers. Timing data between active detector surfaces may be used to determine energy of the incident radiation.