James B Webster

6416669, Jul 9, 2002

Nov 10, 2000

09/709804

Allen Boyce - Portland OR
Michael Steven Marchando - Colorado Springs CO
James Kenneth Webster - Bainbridge Island WA

SEH America, Inc. - Vancouver WA

B01D 6300

210638, 210650, 210651, 210681

The present invention is directed to the use a of resin trap device to remove large resin particles from water in a water purification system to thereby protect downstream ultrafiltration equipment. The present invention includes a resin trap device which comprises a housing and a resin strainer disposed within the housing. The resin strainer includes a plurality of openings having a particle pass size of between about 100 m and about 250 m, and thus allows water and small particles to pass through the resin trap device and large particles to be retained in the resin trap device. The present invention also includes a water purification system including a water source, a resin bed and the resin trap device, and a method of purifying water using the resin trap device of the invention.

6475385, Nov 5, 2002

Nov 10, 2000

09/710248

Allen Boyce - Portland OR
Michael Steven Marchando - Colorado Springs CO
James Kenneth Webster - Bainbridge Island WA

SEH America, Inc. - Vancouver WA

B01D 6300

2102572, 210266, 210289, 210291, 2103216

The present invention is directed to the use of a resin trap device to remove large resin particles from water in a water purification system to thereby protect downstream ultrafiltration equipment. The present invention includes a resin trap device which comprises a housing and a resin strainer disposed within the housing. The resin strainer includes a plurality of openings having a particle pass size of between about 100 m and about 250 m, and thus allows water and small particles to pass through the resin trap device and large particles to be retained in the resin trap device. The present invention also includes a water purification system including a water source, a resin bed and the resin trap device, and a method of purifying water using the resin trap device of the invention.

61836370, Feb 6, 2001

Jul 23, 1998

9/121369

Allen Boyce - Portland OR
Michael Steven Marchando - Colorado Springs CO
James Kenneth Webster - Bainbridge Island WA

SEH America, Inc. - Vancouver WA

B01D 6300

2102572

The present invention is directed to the use of a resin trap device to remove large resin particles from water in a water purification system to thereby protect downstream ultrafiltration equipment. The present invention includes a resin trap device which comprises a housing and a resin strainer disposed within the housing. The resin strainer includes a plurality of openings having a particle pass size of between about 100. mu. m and about 250. mu. m, and thus allows water and small particles to pass through the resin trap device and large particles to be retained in the resin trap device. The present invention also includes a water purification system including a water source, a resin bed and the resin trap device, and a method of purifying water using the resin trap device of the invention.

20170160547, Jun 8, 2017

Dec 3, 2015

14/958751

James Randolph Webster - Redmond WA, US
Jeb Wu - Redmond WA, US
Steven John Robbins - Redmond WA, US
Tuomas Heikki Sakari Vallius - Espoo, FI
Yarn Chee Poon - Redmond WA, US

G02B 27/01
G02B 27/42
G06T 19/00

Introduced here is a display device that comprises a light emitter and a diffractive optical element (DOE) that is optically coupled to receive light from the light emitter and to convey the light along an optical path. The DOE may have an input surface and an output surface parallel to the input surface, where the input surface and the output surface each have a central region and a peripheral region. The DOE further may have optical characteristics such that light exiting the DOE in the peripheral region of the output surface has greater brightness than light exiting the DOE in the central region of the output surface.

20170068094, Mar 9, 2017

Sep 3, 2015

14/845195

James Randolph Webster - Redmond WA, US
Jeb Wu - Redmond WA, US
Richard James - Woodinville WA, US
Steven John Robbins - Redmond WA, US
Yarn Chee Poon - Redmond WA, US
KengHui Lin - Taichung City, TW
Chienchih Hsiung - Chubei City, TW

G02B 27/01
G02B 27/26
G02B 27/28

A display engine assembly comprises a first imager and a second imager to generate a left image and a right image, respectively, in a head-mounted display device. The left and right images are left and right components, respectively, of a single stereoscopic image. The display engine further comprises an optical waveguide optically coupled to the first imager and the second imager. The optical waveguide is part of a first optical path to convey the left image to a left eye of a user of the head-mounted display device and is also part of a second optical path to convey the right image to a right eye of the user of the head-mounted display device.

20160266398, Sep 15, 2016

Mar 13, 2015

14/658017

Yarn Chee Poon - Redmond WA, US
Steve Robbins - Redmond WA, US
Angus Wu - Corvallis OR, US
Jeb Wu - Redmond WA, US
James Webster - Redmond WA, US
Richard Andrew Wall - Kirkland WA, US
Richard James - Woodinville WA, US
Robin Hsiung - Hsinchu, TW
RuPing Huang - Hsinchu, TW
Freeway Lin - Hsinchu, TW

G02B 27/28
G02B 27/01
G02B 5/30
G02B 27/22

An optical light engine includes a pair of lenticular microlenslet arrays (MLAs) located on each side of a polarization converter. Non-polarized light from a source in the engine is focused by the first MLA onto cells of the polarization converter which converts the light to a common state of polarization to increase efficiency and improve contrast in the system. A half wave retarder is included on the polarization converter to change the polarization of any light that is reflected from downstream optical components to match that of the forward propagating light. The second MLA, which includes a relatively large number of microlenslet elements, collects the light from the polarization converter and homogenizes the light to be highly uniform when received at a downstream imaging panel in the light engine such as a liquid crystal on silicon (LCOS) panel.