Netapp
Senior S and Op Planner
Opelin Mar 2015 - Mar 2017
Supply Chain Account Manager
Opelin 2005 - Feb 2011
Business Planning Manager
Hewlett-Packard Aug 2003 - Oct 2004
Chief Technology Officer Factory Execution Manager
Opelin Apr 1997 - Aug 2003
Commodity Analyst
Education:
Université De Caen Normandie 1990 - 1991
Chonnam National University
Bachelors, Bachelor of Arts, Design, Linguistics
Choongang University Graduate School
University of California, Berkeley
Skills:
Supply Chain Management Cross Functional Team Leadership Supply Management Business Process Improvement Forecasting Program Management Competitive Analysis Supplier Evaluation Supplier Quality Supplier Negotiation Mrp Supply Chain Visual Basic Commodity Risk Management Korean French English Business Process Vendor Management Cscp Logistics Analysis Operations Management Business Analysis Management Strategy Fluent English Supplier Management Supplier Negotiations Supplier Selection Supplier Audits Supply Chain Operations Demand Forecasting Strategic Sourcing
Languages:
English Korean French
Certifications:
Certified Supply Chain Professional License 1762802 Apics, License 1762802
May 2005 to Present Accessory Business Planning ManagerHewlett Packard
Oct 2004 to May 2005 Desktop PC Business Planning ManagerHewlett Packard
2003 to 2004 Configure-to-Order Desktop PC Execution ManagerHewlett Packard Korea
2002 to 2003 Commodity AnalystHewlett Packard Korea
1997 to 2002 BuyerAmkor Technology Korea
1995 to 1997 Account Planner
Education:
University of California Extension 2006 to 2007 StatisticsChonnam National University 1985 to 1989 B.A. in French LanguageAPICS Certified Supply Chain Professional (CSSP) in Supply Chain
Us Patents
Nanochannel-Based Sensor System For Use In Detecting Chemical Or Biological Species
Yu Chen - Boston MA, US Xihua Wang - Allston MA, US Agniezska Kalinowski - Pittsburgh PA, US Mi Hong - Quincy MA, US Pritiraj Mohanty - Los Angeles CA, US Shyamsunder Erramilli - Quincy MA, US
Assignee:
Trustees of Boston University - Boston MA
International Classification:
G01N 27/04 G01R 27/08
US Classification:
324693, 977957
Abstract:
A sensor system for detecting a chemical or biological species includes a sensing element and a bias and measurement circuit. The sensing element includes nanochannels, each having an outer surface functionalized to chemically interact with the species to create a corresponding surface potential, and each having a sufficiently small cross section to exhibit a shift of a differential conductance characteristic into a negative bias operating region by a shift amount dependent on the surface potential. The bias and measurement circuit applies a bias voltage across two ends of the nanochannels sufficiently negative to achieve a desired dependence of the differential conductance on the surface potential, wherein the dependence has a steeply sloped region of high amplification substantially greater than a reference amplification at a zero-bias condition, thus achieving relatively high signal-to-noise ratio. The bias and measurement circuit converts the measured differential conductance into a signal indicative of presence or activity of the species of interest.
Nanochannel-Based Sensor System For Use In Detecting Chemical Or Biological Species
Yu Chen - Boston MA, US Xihua Wang - Allston MA, US Agniezska Kalinowski - Pittsburgh PA, US Mi Hong - Quincy MA, US Pritiraj Mohanty - Boston MA, US Shyamsunder Erramilli - Quincy MA, US
International Classification:
G01N 27/12
US Classification:
435 12, 422 69, 435 14, 4352871, 436501
Abstract:
A sensor system for detecting a chemical or biological species includes a sensing element and a bias and measurement circuit. The sensing element includes nanochannels having an outer surface functionalized for interaction with the species to create a surface potential, and each having a sufficiently small cross section to exhibit a shift of differential conductance into a negative bias operating region by a shift amount dependent on the surface potential. The bias and measurement circuit applies a bias voltage across two ends of the nanochannels sufficiently negative to achieve a desired dependence of the differential conductance on the surface potential. The dependence has a steeply sloped region of high amplification substantially greater than a reference amplification at a zero-bias condition, thus achieving relatively high signal-to-noise ratio. The bias and measurement circuit converts the measured differential conductance into a signal indicative of presence or activity of the species.