Genea
Director of Finance and Submeter Billing
Genea Jan 2017 - Dec 2018
Associate Director of Finance at Genea
Lumen Sv, Llc Oct 2012 - Dec 2012
Consultant
Soccer Shots Oc 2011 - Dec 2012
Sales and Marketing
Sonitrol Orange County Aug 2010 - May 2011
Marketing and Sales
Education:
University of California, Davis 2005 - 2010
Bachelors, Bachelor of Science, Economics
The Kings Academy 2005
University of California
Skills:
Marketing Sales Social Media Leadership Microsoft Excel Microsoft Office Salesforce.com Financial Analysis Social Media Marketing Accounting Management Customer Service Account Management Program Management Saas Powerpoint Business Analysis Cold Calling Facebook Fundraising Public Speaking Marketing Strategy Event Planning Sales Operations Product Management Quickbooks
Kansas State University 1970 - 1976
Doctorates, Doctor of Philosophy, Philosophy, Chemistry
Villanova University 1966 - 1970
Bachelors, Chemistry
Skills:
Semiconductors Ic Asic Semiconductor Industry Failure Analysis Soc Program Management Electronics Cmos Engineering Management R&D Cross Functional Team Leadership Manufacturing Mixed Signal Spc Characterization Reliability Analog Design of Experiments
Jason T Gentry - Wellington CO, US David D. Balhiser - Fort Collins CO, US Ronald G Harber - Loveland CO, US Bryan Haskin - Ft. Collins CO, US Gayvin E Stong - Fort Collins CO, US Paul J. Marcoux - Fort Collins CO, US
Assignee:
Agilent Technologies, Inc. - Palo Alto CA
International Classification:
G06F017/50 G06F019/00 G06F017/11
US Classification:
716 5, 716703, 716 15
Abstract:
A method and system of identifying one or more nets in a digital IC design that are at risk of electromigration comprises selecting a manufacturing process for the digital IC design and obtaining a clock period and process voltage. A voltage waveform transition time and effective capacitance is calculated for one or more of the nets. A maximum allowable effective capacitance for each one of the nets is calculated based upon a peak current analysis or an RMS current analysis. The effective capacitance for each net is compared against the maximum allowable capacitance to identify those nets that are at risk of failure due to the effects of electromigration.
Method For Making Patterned Implanted Buried Oxide Transistors And Structures
Theodore I. Kamins - Palo Alto CA Jean-Pierre Colinge - Palo Alto CA Paul J. Marcoux - Mountain View CA Lynn M. Roylance - Los Altos CA John L. Moll - Palo Alto CA
Assignee:
Hewlett-Packard Company - Palo Alto CA
International Classification:
H01L 2176 H01L 21265
US Classification:
437 26
Abstract:
A method for producing buried oxide layers in selected portions of a semiconductor substrate including the steps of applying a patterned mask made from a high-density material over a semiconductor substrate and selectively forming buried oxide layers by oxygen ion implantation. The high-density material of the mask is preferably tungsten, but can also be made from other suitable materials such as silicon nitride. A MOS transistor is made by the process of the present invention by applying the high-density mask material over the gate of the transistor, and forming buried oxide layers by ion implantation beneath only the source region and drain region of the transistor. The completed MOS transistor has the characteristics of reduced drain and source capacitance, reduced leakage, and faster response, but does not suffer from the floating-body effect of MOS transistors made by SOI processes.
Method For Fabricating Conductors In Integrated Circuits
Paul J. Marcoux - Mountain View CA Eileen M. Murray - Yokohama, JP Hugh R. Grinolds - Yokohama, JP
Assignee:
Hewlett-Packard Company - Palo Alto CA
International Classification:
B44C 122 C03C 1300 C03C 2506 C23F 102
US Classification:
156643
Abstract:
A technique of patterning a conductive layer for interconnections in integrated circuits is disclosed. The technique enables fine line conductors to be fabricated. In accordance with the invention, a pattern for the conductors is etched into the surface of a substrate through the use of a patterned photoresist layer. The conductive layer is then deposited over the photoresist layer and into the pattern etched into the substrate surface. In intervening steps, only the portions of the conductive layer outside the depression of the pattern in the surface are removed; the portions of the conductive layer within the depression remains intact to provide the pattern of fine line conductors desired.