Dr. Tran graduated from the Ross Univ, Sch of Med, Roseau, Dominica in 1999. He works in Yuba City, CA and specializes in Internal Medicine. Dr. Tran is affiliated with Fremont Medical Center, Rideout Regional Medical Center and UC Davis Medical Center.
Dr. Tran graduated from the Louisiana State University School of Medicine at New Orleans in 1999. He works in Metairie, LA and specializes in Family Medicine. Dr. Tran is affiliated with East Jefferson General Hospital.
Meggitt Wilcoxon Research Germantown, MD Nov 2011 to Sep 2012 Electronics SpecialistT4 IT Group LLC Falls Church, VA Jan 2008 to Oct 2011 Technician PCMassimo Inc. Irvine, CA Aug 2005 to Oct 2007 Machine Operator MoldPower Ware Tech Santa Ana, CA Apr 2001 to Jun 2005 SMT solder under Microscope
Skills:
Excellent communication skills and organizational abilities, fluent in English, Vietnamese, learning new thing, friendly and working hard, dexterity
University of Southern Nevada Henderson, NV 2009 Bachelor of Science in NursingCalifornia State Fullerton University Fullerton, CA 2007 Bachelor of Science in BiochemistrySanta Ana College Santa Ana, CA 2005 Associate in Chemistry
Vi at Palo Alto Palo Alto, CA Dec 2010 to Dec 2013 Community Relations ManagerVi at Palo Alto Palo Alto, CA Oct 2007 to Dec 2010 Executive AssistantVi at Palo Alto Palo Alto, CA Aug 2006 to Oct 2007 Sales AssistantCost Plus World Market Pensacola, FL Jun 2005 to May 2006 SupervisorDiscovery Channel Store Pensacola, FL Jul 2000 to Jun 2005 Assistant Store Manager
Education:
Notre Dame de Namur University Belmont, CA Jun 2010 BS in Business AdministrationPensacola Junior College Pensacola, FL Jan 2002 AA in Business
Alcon Laboratories Irvine, CA Mar 2014 to Oct 2014 Selective Solder Systems Operator/TechnicianMeggitt Wilcoxon Research Germantown, MD Nov 2011 to Sep 2012 Electro-Mechanical AssemblerT4 IT Group LLC Falls Church, VA Jan 2008 to Oct 2011 PC TechnicianMasimo Corporation Irvine, CA Aug 2005 to Oct 2007 Mold Machine OperatorPower Wave Tech Santa Ana, CA Apr 2001 to Jun 2005 Solder/Electro-mechanical Assembler
Education:
Park Center High School Brooklyn Center, MN 2010 high school diplomaNorth Hennepin Community College Brooklyn Park, MN
Skills:
Apple Certified Macintosh Technician (ACMT) Dell Certified Systems Expert (DCSE) ISO-9001 Certified Meggitt
Kaiser Permanente Los Angeles, CA Jan 2011 to Jan 2013 ICU staffKaiser Permanente
2012 to 2012 Home Health NurseKaiser Permanente Los Angeles, CA Apr 2010 to Dec 2010 Travel nurse Cardiac Coronary Care UnitKaiser Hospital Los Angeles, CA Jan 2010 to Apr 2010 RNAlexian Brothers Medical Center Elk Grove Village, IL 2002 to 2010 RNSt. Vincent Hospital Indianapolis, IN 2001 to 2002 Student Nurse ExternBloomington Hospital Bloomington, IN 2000 to 2001 Student Nurse Intern
Education:
Indiana University Bloomington, IN 1997 to 2001 BSN in Nursing
Kyung Joon Han - Palo Alto CA Joo Weon Park - Pleasanton CA Dung Tran - San Jose CA Steve K. Hsia - San Jose CA Jong Seuk Lee - Palo Alto CA Dae Hyun Kim - Fremont CA
Assignee:
NexFlash Technologies, Inc. - San Jose CA
International Classification:
G11C 1604
US Classification:
36518524, 36518526, 3651853, 36518529
Abstract:
A convergence signal includes a series of voltage pulses used to perform a convergence procedure in one or more flash EEPROM memory cells (transistors). In one instance subsequent voltage pulses in the convergence signal each have a higher voltage than the preceding pulse. In another instance, subsequent voltage pulses in the convergence signal each have a longer duration than the preceding pulse. An integrated circuit includes an array of memory cells and an erase control unit which controls the application of the convergence signal to one or more memory cells. The integrated circuit may be either serial or parallel flash EEPROM in which bulk, sector, or page mode erasing is used.
Method And Apparatus For Multiple Byte Or Page Mode Programming Of A Flash Memory Array
Kyung Joon Han - Palo Alto CA Dung Tran - San Jose CA Steven W. Longcor - Mountain View CA Steve K. Hsia - San Jose CA
Assignee:
NexFlash Technologies, Inc. - San Jose CA
International Classification:
G11C 1604
US Classification:
36518528, 36518717, 36518518
Abstract:
A memory array contains memory cells designed to be erased using Fowler-Nordheim (âFNâ) tunneling through the channel area, and programmed using either channel hot electron injection (âCHEâ) or channel-initiated secondary electron injection (âCISEIâ). To reduce disturbance of the floating gate potential of unselected memory cells during programming operations and read operations, the unselected word lines are brought to a negative potential rather than ground potential. To reduce disturbance of the floating gate potential of unselected memory cells during FN erase operations, the unselected word lines are brought to a positive potential rather than ground potential.
Method And Apparatus For Multiple Byte Or Page Mode Programming Of A Flash Memory Array
Steve K. Hsia - San Jose CA Kyung Joon Han - Palo Alto CA Dung Tran - San Jose CA
Assignee:
NexFlash Technologies, Inc. - San Jose CA
International Classification:
G11C 1604
US Classification:
36518528, 36518518, 36536517
Abstract:
A memory array contains memory cells designed to be erased using Fowler-Nordheim (âFNâ) tunneling through the channel area, and programmed using either channel hot electron injection (âCHEâ) or channel-initiated secondary electron injection (âCISEIâ). To reduce disturbance of the floating gate potential of unselected memory cells during programming operations and read operations, the unselected word lines are brought to a negative potential rather than ground potential. To reduce disturbance of the floating gate potential of unselected memory cells during FN erase operations, the unselected word lines are brought to a positive potential rather than ground potential.
Cung Vu - San Jose CA, US Dung Tran - Milpitas CA, US
International Classification:
H03L 5/00
US Classification:
327333
Abstract:
Multistage signal amplification, including level translation, improves signal integrity, e.g., slew rate, complementary signal delay and duty cycle performance, by mirroring complementary output current in an output stage based on a signal developed in an input stage pull-up network. A multistage amplifier may comprise a first stage comprising a differential input circuit coupled, respectively, between first and second inputs and first and second nodes, wherein the first node is coupled to a first pull-up circuit controlled by the first node and the second node is coupled to a second pull-up circuit controlled by the second node; and a second stage comprising a complementary output circuit coupled, respectively, between first and second nodes and first and second outputs, wherein a current mirror sinks essentially the same current at the first output as is sourced at the second output and vice versa. The pull-up network may further comprise a cross-coupled pull-up circuit.
Two Reference Voltage Weighted Capacitor Digital To Analog Converter
Simon M. Law - Torrance CA Thierry L. Watteyne - Rancho Palos Verdes CA Dung N. Tran - Wescosville PA
Assignee:
Xerox Corporation - Stamford CT
International Classification:
H03M 168
US Classification:
340347DA
Abstract:
A weighted capacitor digital to analog converter is disclosed which requires only one stage and one conversion step. By the use of two reference voltages and two groups of capacitors in parallel, various capacitors in these groups can be selectively switched from the reference voltages to ground potential in response to input binary digit signals thereby presenting a predetermined amount of voltage to the output amplifier depending upon the number and particular combination of capacitors switched or non-switched to ground.
Method And Apparatus For Detecting Failed Batteries
Larry D. Reeves - Palo Alto CA Dung A. Tran - San Jose CA
Assignee:
Compaq Computer Corporation - Cupertino CA
International Classification:
G01N 27416
US Classification:
324434
Abstract:
A technique for detecting failed batteries while the battery is attached to one or more electronic devices and is receiving a float charge is disclosed. The float voltage minimizes the normal voltage differences between battery cells. The technique employs a ratio comparative analysis of cell voltages of a battery provided across the terminals of the battery. Application of the ratio comparative analysis in assessing the condition of a battery assumes an equal voltage drop across each battery cell such that the cells are modeled as a series of resisters with respect to the float voltage. Such equal voltage drop enables a comparative ratio analysis of the voltage across each of the two portions of the battery's cell stack to the voltage across the entire battery. The comparative ratio analysis determines a voltage threshold that identifies whether a battery has a shorted or open cell.
Ecl Prom Programming Method And Apparatus Using Ecl Addressing Means
An apparatus for programming an ECL PROM comprises conventional ECL row and column address circuits for selecting a particular fuse in the ECL PROM. The selection of a particular fuse in the ECL PROM generates a control signal in the address decoders corresponding thereto which enables a current drive gate and a current sink gate coupled thereto. A row program control circuit and a column program circuit are then enabled by an increase of potential applied thereto for turning on the current drive gate and the current sink gate coupled to the selected fuse. The turning on of the current drive gate and the current sink gate coupled to the selected fuse causes 50 to 10 milliamps to flow through the selected fuse, blowing the fuse.
A charge pump essentially incorporating parallel connections of low capacity charge pumps, where each low capacity charge pump is controlled by a clock signal, where the clock signal associated with a low capacity charge pump has a phase different than the other clock signals. Hence, the output of these essentially parallel connected charge pumps will have a ripple period which is a fraction of the period of any single clock signal, wherein the fraction is equal to 1/n, where n is the number of parallel low capacity charge pumps. This results in a ripple magnitude of 1/n that of charge pumps using a single clock source with identical input and output capacitance.