DR. GREGORY CHARLES TAYLOR, M.D
Anesthesiologist Assistant at Barnes Rd, Portland, OR

License number
Oregon MD23196
Category
Osteopathic Medicine
Type
Anesthesiology
Address
Address 2
9205 SW Barnes Rd, Portland, OR 97225
543 7Th St, West Linn, OR 97034
Phone
(503) 216-1234
(503) 635-4137

Personal information

See more information about GREGORY CHARLES TAYLOR at radaris.com
Name
Address
Phone
Gregory Taylor, age 46
4765 Firwood Rd, Lake Oswego, OR 97035
(317) 201-0126
Gregory Taylor
4891 S Myrtle Rd, Myrtle Creek, OR 97457
(541) 863-3442
Gregory Taylor, age 72
5606 Upland Dr, Klamath Falls, OR 97603
Gregory P Taylor, age 68
18148 Madison Way, Portland, OR 97236
(503) 761-8260
Gregory P Taylor, age 68
3250 32Nd Ct, Gresham, OR 97080
(503) 761-8260

Professional information

See more information about GREGORY CHARLES TAYLOR at trustoria.com
Gregory Taylor Photo 1
Supervisor At City Of Portland Oregon

Supervisor At City Of Portland Oregon

Position:
Supervisor at City of Portland Oregon
Location:
Portland, Oregon Area
Industry:
Environmental Services
Work:
City of Portland Oregon - Supervisor


Gregory Taylor Photo 2
Delay Tuning To Improve Timing In Multi-Load Systems

Delay Tuning To Improve Timing In Multi-Load Systems

US Patent:
6691241, Feb 10, 2004
Filed:
Dec 21, 1999
Appl. No.:
09/469848
Inventors:
Gregory F. Taylor - Portland OR
Assignee:
Intel Corporation - Santa Clara CA
International Classification:
G06F 104
US Classification:
713500, 713400
Abstract:
A shared bus multiprocessor system is provided. The system comprises a communications bus, a first processor, a second processor, and a clock. The first processor has a first output buffer that has a first output delay time. The second processor has a second output buffer that has a second output delay time. The second output delay time is less than the first output delay time. Finally, the clock provides a clock signal to the first and second processors, with the clock signal arriving at the second processor before the first processor.


Gregory Taylor Photo 3
Apparatus And Method To Use A Single Reference Component In A Master-Slave Configuration For Multiple Circuit Compensation

Apparatus And Method To Use A Single Reference Component In A Master-Slave Configuration For Multiple Circuit Compensation

US Patent:
6535047, Mar 18, 2003
Filed:
May 17, 2001
Appl. No.:
09/861155
Inventors:
Usman A. Mughal - Hillsboro OR
Razi Uddin - Orangevale CA
Chee How Lim - Hillsboro OR
Songmin Kim - Beaverton OR
Gregory F. Taylor - Portland OR
Assignee:
Intel Corporation - Santa Clara CA
International Classification:
H03K 1714
US Classification:
327378, 327170, 326 30, 326 86
Abstract:
A single external impedance element is used to perform multiple circuit compensation. A reference impedance code is first generated from a master circuit, and then the reference impedance code is provided (as a slave impedance code) to one or more slave circuits to activate devices in the slave circuit(s). Impedance-generation devices coupled to the slave circuit are then activated one at a time until their generated impedance corresponds to the impedance generated by the slave circuit. The reference impedance code can be incremented or decremented (e. g. , shifted) to generate slave impedance codes corresponding to different impedance values, according to impedance requirements of various different circuits that require compensation. Using the single external impedance element for compensation of multiple circuits reduces motherboard and packaging costs.


Gregory Taylor Photo 4
Reference Generator Circuit For Bicmos Ecl Gate Employing Pmos Load Devices

Reference Generator Circuit For Bicmos Ecl Gate Employing Pmos Load Devices

US Patent:
5306964, Apr 26, 1994
Filed:
Feb 22, 1993
Appl. No.:
8/020651
Inventors:
Gregory F. Taylor - Portland OR
Assignee:
Intel Corporation - Santa Clara CA
International Classification:
H03K 1902, H03K 19086
US Classification:
307446
Abstract:
A reference circuit for coupling to a particular type of BiCMOS logic gate includes a V. sub. be multiplier coupled between V. sub. CC and a first internal node. The multiplier establishes a predetermined potential at the internal node which determines the voltage swing across the PMOS load devices utilized in the BiCMOS logic gate. A first PMOS transistor, configured as a current source within the multiplier, has its source coupled to the internal node. A second PMOS transistor has its gate coupled to the gate and drain of the first PMOS transistor in a source-follower configuration so as to drive the source node of the second PMOS transistor to the predetermined potential. A reference PMOS transistor is coupled between V. sub. CC and the source node of the second PMOS transistor, with the gate of the reference PMOS transistor being commonly coupled to the gates of the PMOS load devices and to a reference potential. A NMOS current source device is coupled to the source of the second PMOS transistor such that a reference current flows through the reference PMOS transistor; this current is then mirrored through the PMOS load devices of the BiCMOS logic gate.


Gregory Taylor Photo 5
Semiconductor Package Substrate With Power Die

Semiconductor Package Substrate With Power Die

US Patent:
6075285, Jun 13, 2000
Filed:
Dec 15, 1997
Appl. No.:
8/990705
Inventors:
Gregory F. Taylor - Portland OR
George L. Geannopoulos - Portland OR
Larry E. Mosley - Sunnyvale CA
Assignee:
Intel Corporation - Santa Clara CA
International Classification:
H01L 2352
US Classification:
257691
Abstract:
An apparatus that efficiently delivers electrical power and lowers the inductance to an integrated circuit. In one embodiment, the present invention includes an apparatus for delivering electrical power to an integrated circuit comprising two planes, substantially parallel to one another, having many ground and power traces. The ground and power traces of the separate planes are connected together and connected to the integrated circuit, thereby providing power to the integrated circuit. In each individual plane, the ground and power traces are substantially parallel to each other, one array of traces in one plane substantially perpendicular to another array of traces in another plane. The apparatus being electrically coupled to a printed circuit board having at least one decoupling capacitor with first and second electrodes coupled to at least two of the ground and power connections, respectively, of the integrated circuit through the printed circuit board, and the first and second ground and power planes.


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Method And Apparatus To Ensure Proper Voltage And Frequency Configuration Signals Are Defined Before Applying Power To Processor

Method And Apparatus To Ensure Proper Voltage And Frequency Configuration Signals Are Defined Before Applying Power To Processor

US Patent:
6874083, Mar 29, 2005
Filed:
Dec 22, 2000
Appl. No.:
09/746168
Inventors:
Ananda Sarangi - Beaverton OR, US
Rachael Jade Parker - Forest Grove OR, US
Edward P. Osburn - Folsom CA, US
Gregory F. Taylor - Portland OR, US
Assignee:
Intel Corporation - Santa Clara CA
International Classification:
G06F001/24, G06F001/32
US Classification:
713100, 713 1, 713 2, 713300, 713320, 713322
Abstract:
A dynamic processor configuration and power-up programs a processor's fuse block with configuration signals during processor manufacturing. The processor configuration signals include a core voltage identifier and a system bus frequency identifier. When power is applied to the platform, a control signal is used to prevent power-up of the platform's processor related circuitry. While the platform awaits full power-up, the fuse block is powered up. When the fuse block is powered up, the control signal is used to allow the configuration signals to be read from the fuse block. The processor is configured with core voltage and system bus frequency based on the values read from the fuse block. The platform then performs its boot-up sequence.


Gregory Taylor Photo 7
On-Die Digital-To-Analog Conversion Testing

On-Die Digital-To-Analog Conversion Testing

US Patent:
8314725, Nov 20, 2012
Filed:
Sep 15, 2010
Appl. No.:
12/883125
Inventors:
Paola Zepeda - Chandler AZ, US
David E. Duarte - Portland OR, US
Gregory F. Taylor - Portland OR, US
Atul Maheshwari - Portland OR, US
Assignee:
Intel Corporation - Santa Clara CA
International Classification:
H03M 1/10
US Classification:
341120, 341118, 341119, 341121, 341155
Abstract:
In one embodiment, an analog-to-digital conversion in an integrated circuit is evaluated by an on-die testing circuit. For example, the on-die test circuit can characterize one or both of the linearity and monotonicity of the digital-to-analog conversion. The value of a conversion output for a digital input code may be compared to the value of a prior conversion output of a prior step to provide digital difference values for each step of a sweep of digital input codes. Digital difference values may be compared to one or more predetermined limits to provide one or more pass/fail tests on-board the die. Other embodiments are described and claimed.


Gregory Taylor Photo 8
Internal Clock Jitter Detector

Internal Clock Jitter Detector

US Patent:
6208169, Mar 27, 2001
Filed:
Jun 28, 1999
Appl. No.:
9/340975
Inventors:
Keng L. Wong - Portland OR
Gregory F. Taylor - Portland OR
Ravishankar Kuppuswamy - Hillsboro OR
Douglas R. Parker - Forest Grove OR
Kent R. Callahan - Hillsboro OR
Xia Dai - Chavez Way CA
Assignee:
Intel Corporation - Santa Clara CA
International Classification:
H03K19/096
US Classification:
326 93
Abstract:
An apparatus and method for detecting and measuring internal clock jitter is disclosed. In one embodiment, a reference clock generator generates a reference clock signal based on an instantaneous clock signal. The reference clock signal includes the instantaneous clock signal delayed for an average duration. A phase comparing element receives both the instantaneous clock signal and the reference clock signal such that the phase comparing element measures a phase difference between the instantaneous clock signal and the reference clock signal. The magnitude and direction of the phase difference is indicated by one of a number of distinct phase difference bins in the phase comparing element.


Gregory Taylor Photo 9
Fuse Cell Array With Redundancy Features

Fuse Cell Array With Redundancy Features

US Patent:
7602663, Oct 13, 2009
Filed:
Dec 22, 2006
Appl. No.:
11/644381
Inventors:
Zhanping Chen - Portland OR, US
Jonathan P. Douglas - Portland OR, US
Praveen Mosalikanti - Portland OR, US
Kevin Zhang - Portland OR, US
Gregory F. Taylor - Portland OR, US
Assignee:
Intel Corporation - Santa Clara CA
International Classification:
G11C 17/18
US Classification:
3652257, 36518906, 36518907
Abstract:
A plurality of fuse cells are arranged in an array. One or more fuse cells include a pair of fuse devices to output a pair of voltages, respectively, wherein the pair of fuse devices are redundantly programmed. A sense amplifier is coupled to the plurality of fuse cells to read the pair of voltage outputs from each of the plurality of fuse cells, respectively. A comparator circuit is coupled to the sense amplifier to compare the pair of voltage outputs for each of the plurality of fuse cells and to output the compared result.


Gregory Taylor Photo 10
Phase Locked Loop System Capable Of Deskewing

Phase Locked Loop System Capable Of Deskewing

US Patent:
7199624, Apr 3, 2007
Filed:
Apr 30, 2003
Appl. No.:
10/425914
Inventors:
Keng L. Wong - Portland OR, US
Gregory F. Taylor - Portland OR, US
Chee How Lim - Beaverton OR, US
Assignee:
Intel Corporation - Santa Clara CA
International Classification:
H03L 7/06
US Classification:
327149, 327158
Abstract:
A system is provided that includes a phase lock loop component to output a first signal based on a reference clock signal and a feedback clock signal. A clock distribution network may distribute a clock signal based on the first signal output from the phase lock loop component. Additionally, a delay lock loop component may deskew a signal and adjust the clock signal distributed by the clock distribution network.