JAMES STANLEY MORRIS IV
Pilots at Caddy Ct, Charlotte, NC

License number
North Carolina A2986191
Issued Date
Feb 2017
Expiration Date
Aug 2017
Category
Airmen
Type
Authorized Aircraft Instructor
Address
Address
17537 Caddy Ct, Charlotte, NC 28278

Professional information

James Morris Photo 1

James Morris - Charlotte, NC

Work:
APEX Systems
QA
Diversant - Charlotte, NC
Project Test Coordinator
TIAA-CREF - Charlotte, NC
Project Test Coordinator
Bank of America - Charlotte, NC
Project UAT Coordinator, BOA Preferred Rewards
CITP - Charlotte, NC
Project Test Manager (PTM) Quality Service Center of Excellence (Lowes Headquarters)
TekSystem - Charlotte, NC
Project Test Manager
Midtown Consulting - Charlotte, NC
Project Test Manager (PTM) Quality ComplianceGovernance Manager (Lowes Headquarters)
Sapphire Technologies - Charlotte, NC
Project Test Manager
Equifirst - Charlotte, NC
Quality Assurance Manager
Teksystems - Charlotte, NC
Quality Assurance Consultant-VGS Team Lead
IBM Corporation - Charlotte, NC
Quality Assurance Consultant-Global Services (IBM)
Education:
NC A&T State University
Business Management Coursework
Beckley College
Liberal Arts


James Morris Photo 2

James Morris - Charlotte, NC

Work:
Rite Aid Crown Lift Trucks - Charlotte, NC
Forklift Technician
TJ Maxx - Charlotte, NC
Forklift Mechanic
V-B Williams - Sumter, SC
Maintenance Lead Mechanic
Education:
DeVry University - Charlotte, NC
Bachelor's in Technical Management
Central Piedmont Community College - Charlotte, NC Central Carolina Technical College - Sumter, SC
Associate in Industrial Technology
Crown Lift Truck School


James Morris Photo 3

Intergrated Optical Coupler

US Patent:
6404958, Jun 11, 2002
Filed:
Oct 31, 2000
Appl. No.:
09/702830
Inventors:
Robert R. Boye - Concord NC
Michael R. Feldman - Charlotte NC
James E. Morris - Charlotte NC
Assignee:
Digital Optics Corp. - Charlotte NC
International Classification:
G02B 626
US Classification:
385 47, 385 39
Abstract:
An integrated optical coupler includes multiple ports and a beam discriminating element. Optical elements are provided for directing light to and from the ports and the beam discriminating element. These optical elements may include two optical elements created on the same surface of a substrate. All of the optical elements needed for directing the light may be formed on a transparent substrate or on a structure in the optical path bonded to the substrate. The optical elements may output light of the different wavelengths at the same angle or may be dispersive. The beam discriminating element may discriminate on the basis of wavelength or polarization.


James Morris Photo 4

Compensation And/Or Variation Of Wafer Level Produced Lenses And Resultant Structures

US Patent:
6934460, Aug 23, 2005
Filed:
Oct 4, 2004
Appl. No.:
10/956080
Inventors:
James Morris - Charlotte NC, US
Michael R Feldman - Huntersville NC, US
Assignee:
Digital Optics Corp - Charlotte NC
International Classification:
G02B006/00
US Classification:
385147, 359619
Abstract:
An array of micro-optical components includes at least two micro-optical components. Each micro-optical component includes a refractive surface and a corresponding compensation surface for the refractive surface. The corresponding compensation surface includes a corresponding compensation feature when the refractive surface deviates from a desired optical performance. The micro-optical component provides the desired optical performance. At least two refractive surfaces of the array of micro-optical components are formed to have substantially a same desired optical performance. The array of micro-optical components includes at least one corresponding compensation feature, at least two compensation surfaces of the array of micro-optical components being different from one another. The compensation surface may be created after measuring the refractive surface.


James Morris Photo 5

Triplexer For An Optical Fiber, Package Including The Same, And Associated Methods

US Patent:
8447151, May 21, 2013
Filed:
Nov 16, 2010
Appl. No.:
12/947555
Inventors:
James E. Morris - Charlotte NC, US
Assignee:
DigitalOptics Corporation East - Charlotte NC
International Classification:
G02B 6/34, H04J 14/02
US Classification:
385 37, 385 36, 385 47, 398 86, 398 87
Abstract:
A triplexer including an optics block including a first port configured to receive a first light beam at a first wavelength and a second light beam at a second wavelength, and a second port configured to receive a third light beam at a third wavelength, a bounce cavity between the first and second ports, the bounce cavity being formed by opposing reflective elements adjacent respective surfaces of the optics block, a first grating opposite the first port, the first grating receiving all three light beams at substantially a same location thereon, the first grating configured to provide the first and second light beams to the bounce cavity and the third light beam to the first port, and a second grating opposite the second port, the second grating receiving the first and second light beams at spatially separated portions thereon.


James Morris Photo 6

Integrated Optical Transceiver

US Patent:
2007018, Aug 9, 2007
Filed:
Jan 10, 2007
Appl. No.:
11/651525
Inventors:
Michael Feldman - Charlotte NC, US
James Morris - Charlotte NC, US
Joseph De Bartolo - Charlotte NC, US
Assignee:
DIGITAL OPTICS CORPORATION - Charlotte NC
International Classification:
H01J 40/14, G01J 1/44, H03F 3/08
US Classification:
25021400R
Abstract:
An optical transceiver includes at least one light source and at least one detector mounted on the same surface of the same substrate. The detector is to receive light from other than a light source on the surface. At least one of the light source and the detector is mounted on the surface. An optics block having optical elements for each light source and detectors is attached via a vertical spacer to the substrate. Electrical interconnections for the light source and the detector are accessible from the same surface of the substrate with the optics block attached thereto. One of the light source and the detector may be monolithically integrated into the substrate.


James Morris Photo 7

Wafer Based Optical Chassis And Associated Methods

US Patent:
7224856, May 29, 2007
Filed:
Mar 26, 2004
Appl. No.:
10/809914
Inventors:
Alan D Kathman - Charlotte NC, US
James E Morris - Charlotte NC, US
John Barnett Hammond - Charlotte NC, US
Michael R. Feldman - Huntersville NC, US
Assignee:
Digital Optics Corporation - Charlotte NC
International Classification:
G02B 6/12, G02B 6/26, G02B 6/36
US Classification:
385 14, 385 53, 385 18
Abstract:
An optical chassis includes a mount substrate an optoelectronic device on the mount substrate, a spacer substrate, and a sealer substrate. The mount substrate, the spacer substrate and the sealer substrate are vertically stacked and hermetically sealing the optoelectronic device. An external electrical contact for the optoelectronic device is provided outside the sealing. At least part of the optical chassis may be made on a wafer level. A passive optical element may be provided on the sealer substrate or on another substrate stacked and secured thereto.


James Morris Photo 8

Recessed Optical Surfaces

US Patent:
2012022, Sep 13, 2012
Filed:
May 25, 2012
Appl. No.:
13/481329
Inventors:
Gregory J. Kintz - Asheville NC, US
Michael R. Feldman - Huntersville NC, US
James E. Morris - Charlotte NC, US
Paul Elliott - Charlotte NC, US
David Keller - Charlotte NC, US
W. Hudson Welch - Charlotte NC, US
David Ovrutsky - Charlotte NC, US
Jeremy Huddleston - Charlotte NC, US
Mark Hiatt - Charlotte NC, US
Assignee:
DigitalOptics Corporation East - Charlotte NC
International Classification:
G02B 27/12
US Classification:
359621
Abstract:
An optics block includes a substrate having first and second opposing surfaces, the substrate being a first material, a plurality of through holes extending in the substrate between the first and second opposing surface, a second material, different than the first material, filling a portion of the through holes and extending on a portion of the first surface of the substrate outside the through holes, and a first lens structure in the second material and corresponding to each of the through holes.


James Morris Photo 9

Thin Camera And Associated Methods

US Patent:
8049806, Nov 1, 2011
Filed:
Jul 17, 2006
Appl. No.:
11/487580
Inventors:
Michael R. Feldman - Huntersville NC, US
James E. Morris - Charlotte NC, US
Robert D. Tekolste - Charlotte NC, US
Assignee:
Digitaloptics Corporation East - Charlotte NC
International Classification:
H04N 5/225, H04N 9/09, G02B 27/10, H01L 31/0232, H01L 21/00
US Classification:
348340, 3482181, 348265, 359619, 257432, 438 29
Abstract:
A camera includes a first substrate having a convex refractive element, a second substrate having a concave refractive element, a separation between the first to second substrates, the separation including an air gap between convex refractive element and the concave refractive element, and a third substrate having a detector array thereon, the concave refractive element being closer to the detector than the convex refractive element, at least two of the first to third substrates being secured along a z-axis, wherein the z axis is perpendicular to a plane of the detector array, e. g. , at a wafer level. The convex refractive element may include a plurality of convex refractive elements, the concave refractive element may include a plurality of concave refractive elements, and the detector array may include a plurality of detector arrays, each of the plurality forming a plurality of sub-cameras.


James Morris Photo 10

Waveguide To Waveguide Monitor

US Patent:
7266270, Sep 4, 2007
Filed:
Jun 28, 2002
Appl. No.:
10/184078
Inventors:
James E. Morris - Charlotte NC, US
Alan D. Kathman - Charlotte NC, US
Hongtao Han - Mooresville NC, US
Michael R. Feldman - Charlotte NC, US
Charles S. Koehler - Concord NC, US
Assignee:
Tessera North America - Charlotte NC
International Classification:
G02B 6/26
US Classification:
385 48, 385 33, 385 17
Abstract:
A waveguide to waveguide monitor includes an optics block between the two waveguides. The optics block couples light between the two waveguides and includes at least two parallel surfaces. The monitor also has an optical tap which creates a monitor beam. The optics block may be flush with the endfaces of the waveguides, even if the endfaces are angled. At least two optical elements needed to couple the light between the two optical waveguides and direct the monitor beam on a detector are on the at least two parallel surfaces of the optics block and any surfaces secured thereto.