Alliance Imaging Owosso, MI Jan 2002 to Jun 2014 MRI TechnologistNorth Bay Medical Center Fairfield, CA Jul 2001 to Nov 2001 Radiology TechnologistUnited States Air Force Travis AFB Fairfield, CA Apr 1998 to Nov 2001 MRI Staff Technologist and Day Shift SupervisorUSAF Academy, Colorado, US Jun 1995 to May 1998 Radiology SupervisorPenrose Community Hospital Colorado Springs, CO 1996 to 1998 Radiology TechnologistMaricopa Medical Center Phoenix, AZ Jan 1993 to Jun 1995 Radiology TechnologistUSAF Luke AFB, AZ Aug 1992 to Jun 1995 Radiology Night Shift SupervisorUSAF Kunsan AFB
Aug 1991 to Aug 1992 Radiology TechnicianRadiology TechnologistMcConnell AFB, KS Nov 1988 to Aug 1991St Joseph Medical Center Wichita, KS Nov 1988 to Aug 1991 Radiology TechnologistUSAF Radiology School
Nov 1986 to Nov 1988USAF Randolph AFB, TX Nov 1984 to Nov 1986 Personal TechnicianUSAF Whitman AFB
Mar 1982 to Nov 1984 Personal Technician, ProcessedUSAF Keesler AFB
Aug 1981 to Mar 1982
Education:
Air Force Personnel School 1980 to 1981 Plastics Engineering Program
Gene R. Anderson - Albuquerque NM Marcelino G. Armendariz - Albuquerque NM Johnny R. F. Baca - Albuquerque NM Robert P. Bryan - Albuquerque NM Richard F. Carson - Albuquerque NM Dahwey Chu - Albuquerque NM Frederick B. McCormick - Albuquerque NM David W. Peterson - Sandia Park NM Gary D. Peterson - Albuquerque NM Cathleen A. Reber - Corrales NM Bill H. Reysen - Lafayette CO
Assignee:
Emcore Corporation - Somerset NJ
International Classification:
G02B 636
US Classification:
385 89, 385 88, 385 14
Abstract:
An optoelectronic mounting structure is provided that may be used in conjunction with an optical transmitter, receiver or transceiver module. The mounting structure may be a flexible printed circuit board. Thermal vias or heat pipes in the head region may transmit heat from the mounting structure to the heat spreader. The heat spreader may provide mechanical rigidity or stiffness to the heat region. In another embodiment, an electrical contact and ground plane may pass along a surface of the head region so as to provide an electrical contact path to the optoelectronic devices and limit electromagnetic interference. In yet another embodiment, a window may be formed in the head region of the mounting structure so as to provide access to the heat spreader. Optoelectronic devices may be adapted to the heat spreader in such a manner that the devices are accessible through the window in the mounting structure.
Gene R. Anderson - Albuquerque NM, US Marcelino G. Armendariz - Albuquerque NM, US Johnny R.F. Baca - Albuquerque NM, US Robert P. Bryan - Albuquerque NM, US Richard F. Carson - Albuquerque NM, US Frederick B. McCormick - Albuquerque NM, US Gregory V. Miller - Kansas City MO, US David W. Peterson - Sandia Park NM, US Terrance T. Smith - Albuquerque NM, US
Assignee:
EMCORE Corporation - Somerset NJ
International Classification:
G02B006/36
US Classification:
385 53
Abstract:
This invention relates to an optical transmitter, receiver or transceiver module, and more particularly, to an apparatus for connecting a first optical connector to a second optical connector. The apparatus comprises: (1) a housing having at least a first end and at least a second end, the first end of the housing capable of receiving the first optical connector, and the second end of the housing capable of receiving the second optical connector; (2) a longitudinal cavity extending from the first end of the housing to the second end of the housing; and (3) an electromagnetic shield comprising at least a portion of the housing. This invention also relates to an apparatus for housing a flexible printed circuit board, and this apparatus comprises: (1) a mounting structure having at least a first surface and a second surface; (2) alignment ridges along the first and second surfaces of the mounting structure, the alignment ridges functioning to align and secure a flexible printed circuit board that is wrapped around and attached to the first and second surfaces of the mounting structure; and (3) a series of heat sink ridges adapted to the mounting structure, the heat sink ridges functioning to dissipate heat that is generated from the flexible printed circuit board.
Apparatus And Method Of Using Flexible Printed Circuit Board In Optical Transceiver Device
Gene R. Anderson - Albuquerque NM, US Marcelino G. Armendariz - Albuquerque NM, US Robert P. Bryan - Albuquerque NM, US Richard F. Carson - Albuquerque NM, US Frederick B. McCormick - Albuquerque NM, US David W. Peterson - Sandia Park NM, US Gary D. Peterson - Albuquerque NM, US Bill H. Reysen - Lafayette CO, US
Assignee:
EMCORE Corporation - Somerset NJ
International Classification:
H05K001/00
US Classification:
174254, 385 88
Abstract:
This invention relates to a flexible printed circuit board that is used in connection with an optical transmitter, receiver or transceiver module. In one embodiment, the flexible printed circuit board has flexible metal layers in between flexible insulating layers, and the circuit board comprises: (1) a main body region orientated in a first direction having at least one electrical or optoelectronic device; (2) a plurality of electrical contact pads integrated into the main body region, where the electrical contact pads function to connect the flexible printed circuit board to an external environment; (3) a buckle region extending from one end of the main body region; and (4) a head region extending from one end of the buckle region, and where the head region is orientated so that it is at an angle relative to the direction of the main body region. The electrical contact pads may be ball grid arrays, solder balls or land-grid arrays, and they function to connect the circuit board to an external environment. A driver or amplifier chip may be adapted to the head region of the flexible printed circuit board.
Method And Apparatus For Coupling Optical Elements To Optoelectronic Devices For Manufacturing Optical Transceiver Modules
Gene R. Anderson - Albuquerque NM, US Marcelino G. Armendariz - Albuquerque NM, US Robert P. Bryan - Albuquerque NM, US Richard F. Carson - Albuquerque NM, US Dahwey Chu - Albuquerque NM, US Rachel Knudsen Giunta - Albuquerque NM, US Robert T. Mitchell - Albuquerque NM, US Frederick B. McCormick - Albuquerque NM, US David W. Peterson - Sandia Park NM, US Merideth A. Rising - Santa Fe NM, US Cathleen A. Reber - Corrales NM, US Bill H. Reysen - Lafayette CO, US
Assignee:
Emcore Corporation - Somerset NJ
International Classification:
G02B006/36
US Classification:
385 91, 385 89, 385 88, 385 92
Abstract:
A process is provided for aligning and connecting at least one optical fiber to at least one optoelectronic device so as to couple light between at least one optical fiber and at least one optoelectronic device. One embodiment of this process comprises the following steps: (1) holding at least one optical element close to at least one optoelectronic device, at least one optical element having at least a first end; (2) aligning at least one optical element with at least one optoelectronic device; (3) depositing a first non-opaque material on a first end of at least one optoelectronic device; and (4) bringing the first end of at least one optical element proximate to the first end of at least one optoelectronic device in such a manner that the first non-opaque material contacts the first end of at least one optoelectronic device and the first end of at least one optical element. The optical element may be an optical fiber, and the optoelectronic device may be a vertical cavity surface emitting laser. The first non-opaque material may be a UV optical adhesive that provides an optical path and mechanical stability.
Gene R. Anderson - Albuquerque NM, US Marcelino G. Armendariz - Albuquerque NM, US Richard F. Carson - Albuquerque NM, US Robert P. Bryan - Albuquerque NM, US Shanalyn Adair Kemme - Albuquerque NM, US Frederick B. McCormick - Albuquerque NM, US David W. Peterson - Sandia Park NM, US
Assignee:
Emcore Corporation - Somerset NJ
International Classification:
G02B 6/42
US Classification:
385 89, 385 48
Abstract:
An apparatus and method of attenuating and/or conditioning optical energy for an optical transmitter, receiver or transceiver module is disclosed. An apparatus for attenuating the optical output of an optoelectronic connector including: a mounting surface; an array of optoelectronic devices having at least a first end; an array of optical elements having at least a first end; the first end of the array of optical elements optically aligned with the first end of the array of optoelectronic devices; an optical path extending from the first end of the array of optoelectronic devices and ending at a second end of the array of optical elements; and an attenuator in the optical path for attenuating the optical energy emitted from the array of optoelectronic devices. Alternatively, a conditioner may be adapted in the optical path for conditioning the optical energy emitted from the array of optoelectronic devices.
Optical Transmitter, Receiver Or Transceiver Module
Gene Anderson - Albuquerque NM, US Marcelino Armendariz - Albuquerque NM, US Robert Bryan - Albuquerque NM, US Richard Carson - Albuquerque NM, US Dahwey Chu - Albuquerque NM, US Frederick McCormick - Albuquerque NM, US Robert Mitchell - Albuquerque NM, US David Peterson - Sandia Park NM, US Bill Reysen - Lafayette CO, US
International Classification:
G02B006/36
US Classification:
385/089000
Abstract:
This invention relates to an optical transmitter, receiver or transceiver module, and more particularly, to an optoelectronic connector. The optoelectronic connector comprises: (1) a mounting structure; (2) an array of optoelectronic devices adapted to the mounting structure, the optoelectronic devices having at least a first end; (3) an array of optical elements, the array of optical elements having at least a first end; (4) the first end of the array of optical elements proximate to the first end of the array of optoelectronic devices in such a manner that one or more optical elements is positioned relative to one or more optoelectronic devices; and (5) a heat spreader passing along a surface of a head region of the mounting structure. The mounting structure may be a flexible printed circuit board. Thermal vias or heat pipes in the head region may transmit heat from the mounting structure to the heat spreader. The heat spreader may provide mechanical rigidity or stiffness to the heat region. In another embodiment, an electrical contact and ground plane may pass along a surface of the head region so as to provide an electrical contact path to the optoelectronic devices and limit electromagnetic interference. In yet another embodiment, a window may be formed in the head region of the mounting structure so as to provide access to the head spreader. Optoelectronic devices may be adapted to the head spreader in such a manner that the devices are accessible through the window in the mounting structure.
Method Of Improving The Fabrication Of Etched Semiconductor Devices
John Joseph - Morgan Hill CA, US Wenlin Luo - Alburquerque NM, US Kevin Lear - Ft. Collins CO, US Robert Bryan - Albuquerque NM, US
International Classification:
H01L021/4763 H01L021/31 H01L021/469
US Classification:
438/623000, 438/759000
Abstract:
This invention relates to a method of improving the fabrication of etched semiconductor devices by using a patterned adhesion promoter layer over a hydrocarbon planarization material. More specifically, the present invention improves the bonding of a metal interconnect layer to a hydrocarbon planarization material, such as polyimide, by inserting an adhesion promotion layer, such as silicon nitride, between the hydrocarbon planarization material and the metal interconnect layer. A process for improving the fabrication of etched semiconductor devices, comprises the steps of: (1) depositing a hydrocarbon planarization material over a substrate; (2) depositing an adhesion promoter over the hydrocarbon planarization material; (3) defining a first mask and etching back the adhesion promoter so as to form an adhesion promoter pad over a portion of the hydrocarbon planarization material; and (4) depositing a first metal over the adhesion promoter pad.
Gene Anderson - Albuquerque NM, US Marcelino Armendariz - Albuquerque NM, US Robert Bryan - Albuquerque NM, US Richard Carson - Albuquerque NM, US Edwin Duckett - Albuquerque NM, US Shanalyn Kemme - Albuquerque NM, US Frederick McCormick - Albuquerque NM, US John Nevers - Albuquerque NM, US David Peterson - Sandia Park NM, US
International Classification:
G02F001/01 G01J001/42
US Classification:
250/227110
Abstract:
An optical power control system is provided that may be used in connection with an optical transmitter, receiver or transceiver module. The optical power control system comprises: (1) an array of optoelectronic devices; (2) an array of optical elements; (3) the array of optical elements optically aligned to the array of optoelectronic devices in such a manner that one or more optical elements is optically aligned to one or more optoelectronic devices; (4) a light-receiving device; and (5) a reflector proximate to the array of optical elements, the reflector optically orientated with the array of optoelectronic devices and the light-receiving device such that some emission from at least one optoelectronic device is reflected on at least a portion of the light-receiving device. The optical elements may be optical fibers and may be packaged in a ferrule. The light-receiving device may be a photo-detector or a light pipe. A feedback loop connects the light-receiving device to the array of optoelectronic devices so as to adjust the output of the array of optoelectronic devices in response to the emission detected by the light-receiving device. The reflector scatters the emission from the optoelectronic device, and it may be adapted to a bottom surface of a ferrule. In another embodiment, optical resin is dispensed proximate to the array of optoelectronic devices and light-receiving device. Emission from at least one optoelectronic device is reflected onto the light-receiving device by the optical resin.
Philadelphia VA Medical Center Radiology 3900 Woodland Ave, Philadelphia, PA 19104 (215)8236314 (phone)
Education:
Medical School University of Texas Medical Branch at Galveston Graduated: 1969
Languages:
English
Description:
Dr. Bryan graduated from the University of Texas Medical Branch at Galveston in 1969. He works in Philadelphia, PA and specializes in Diagnostic Radiology and Neuroradiology. Dr. Bryan is affiliated with Corporal Michael J Crescenz VA Medical Center.
Bryan & Glass DDS 4320 Mcauley Blvd STE E, Oklahoma City, OK 73120 (405)7554826 (phone)
Conditions:
Gingival and Periodontal Diseases Tempromandibular Joint Disorders (TMJ)
Languages:
English
Description:
Dr. Bryan works in Oklahoma City, OK and specializes in Oral & Maxillofacial Surgery. Dr. Bryan is affiliated with Integris Baptist Medical Center and Mercy Hospital Oklahoma City.
MedSec was founded in 2015 by Robert Bryan, a former portfolio manager at Metaval Capital LLC whose career also included stints at Cyrus Capital and Goldman Sachs. The Miami-based company advertises an array of services, from penetration tests against health-care companies corporate networks to sec
Date: Aug 25, 2016
Category: Business
Source: Google
Muddy Waters founder Block warns of hacking risk for St. Jude heart devices
executive who previously worked in risk management at companies including Bloomberg LP, the parent company of Bloomberg News. MedSec was founded in 2015 by Robert Bryan, a former portfolio manager at the Metaval Capital hedge fund whose career also included stints at Cyrus Capital and Goldman Sachs.
Date: Aug 25, 2016
Category: Business
Source: Google
Carson Block Takes on St. Jude Medical With Claim of Hack Risk
curity executive who formerly worked in risk management at companies including Bloomberg LP, the parent company of Bloomberg News. MedSec was founded in 2015 by Robert Bryan, a former portfolio manager at the Metaval Capital hedge fund whose career also included stints at Cyrus Capital and Goldman Sachs.
Date: Aug 25, 2016
Category: Business
Source: Google
Police: 6-year-old accidentally shot by 4-year-old
nvestigators said Wilson County Deputy Daniel Fanning was showing his weapons to a relative in a bedroom of his Lebanon home on Saturday when the boy came in and picked up a gun off the bed. Sheriff Robert Bryan said the weapon discharged, hitting 48-year-old Josephine Fanning, who died at the scene.
Investigators say Wilson County Deputy Daniel Fanning on Saturday was showing his weapons to a relative in a bedroom of his Lebanon home when the toddler came in and picked up a gun off the bed. Sheriff Robert Bryan says the weapon discharged, hitting 48-year-old Josephine Fanning.
Date: Apr 08, 2013
Category: U.S.
Source: Google
Lakewood officer pleads guilty to taking donations
Under a plea agreement with the 34-year-old Dupont man, prosecutors are recommending a prison term of about two years when he is sentenced June 15. Federal Judge Robert Bryan could sentence him up to 20 years.