Mark A Morgan

US Patent:

D524298, Jul 4, 2006

Filed:

Sep 7, 2004

Appl. No.:

29/212787

Inventors:

Richard C. Hedderich - Sandy UT, US
Roger T. Johnsen - Salt Lake City UT, US
Paul B. Vincent - Centerville UT, US
Paul E. Nagel - Sandy UT, US
James R. Gist - Draper UT, US
William B. West - Sandy UT, US
Wallace Eric Smith - Lindon UT, US
Mark J. Morgan - Draper UT, US

Assignee:

Control4 Corporation - Draper UT

International Classification:

1403

US Classification:

D14218

US Patent:

D552616, Oct 9, 2007

Filed:

Sep 7, 2004

Appl. No.:

29/212792

Inventors:

Jonathan Jay Woolley - Draper UT, US
Roger T. Johnsen - Salt Lake City UT, US
Mark J. Morgan - Draper UT, US
Steven C. Hart - Coeur D'Alene ID, US

Assignee:

Control4 Corporation - Draper UT

International Classification:

1402

US Classification:

D14449

US Patent:

7612285, Nov 3, 2009

Filed:

Jan 8, 2007

Appl. No.:

11/650739

Inventors:

William E. Horne - Kent WA, US
Mark D. Morgan - Kent WA, US

Assignee:

Edtek, Inc. - Kent WA

International Classification:

H01L 31/00

US Classification:

136246, 126684, 126685

Abstract:

A parabolic primary mirror () has a concave specular surface () that is constructed and positioned to receive solar energy and focus it towards a focal point. A secondary mirror () having a convex specular surface () is constructed and positioned to receive focused solar energy from the primary mirror and focus it onto an annular receiver (). The annular receiver () may include an annular array of optical elements () constructed to receive solar energy from the secondary specular surface () and focus it onto a ring of discrete areas. A ring of solar-to-electrical conversion units are positioned on the ring of discrete areas.

US Patent:

7893391, Feb 22, 2011

Filed:

Jun 15, 2009

Appl. No.:

12/484429

Inventors:

William E. Horne - Renton WA, US
Mark D. Morgan - Seattle WA, US

Assignee:

Edtek, Inc. - Kent WA

International Classification:

G01C 21/02
H01L 31/042
F24J 2/38

US Classification:

2502034, 136246, 126573

Abstract:

A positional sensor for a solar energy collection device includes a fine sensing device having first light-sensitive sensors supported above a base so that adjacent first light-sensitive sensors are oriented in mutually orthogonal directions at a sensor height above the base. The first light-sensitive sensors are positioned at oblique angles relative to the base. The sensor also includes a coarse sensing device having a light-opaque shield surrounding the first light-sensitive sensors that extends outwardly from the base to a height that is greater than the sensor height. The shield includes second light sensing devices directed outwardly from the shield and arranged so that adjacent second light-sensitive sensors are oriented in mutually orthogonal directions.

US Patent:

8013236, Sep 6, 2011

Filed:

Apr 28, 2009

Appl. No.:

12/431480

Inventors:

William E. Horne - Kent WA, US
Mark D. Morgan - Kent WA, US

Assignee:

Edtek, Inc. - Kent WA

International Classification:

H02N 6/00
H01L 31/042
F24J 2/08
F24J 2/10
F24J 2/18

US Classification:

136246, 126684, 126685

Abstract:

A parabolic primary mirror () has a concave specular surface () that is constructed and positioned to receive solar energy and focus it towards a focal point. A secondary mirror () having a convex specular surface () is constructed and positioned to receive focused solar energy from the primary mirror and focus it onto an annular receiver (). The annular receiver () may include an annular array of optical elements () constructed to receive solar energy from the secondary specular surface () and focus it onto a ring of discrete areas. A ring of solar-to-electrical conversion units are positioned on the ring of discrete areas.

US Patent:

20090225426, Sep 10, 2009

Filed:

May 19, 2009

Appl. No.:

12/468443

Inventors:

William E. Horne - Renton WA, US
Mark D. Morgan - Seattle WA, US

Assignee:

Edtek, Inc. - Kent WA

International Classification:

G02B 1/10
B05D 5/06

US Classification:

359585, 427162, 264 19

Abstract:

A parabolic primary mirror () has a concave specular surface () that is constructed and positioned to receive solar energy and focus it towards a focal point. A secondary mirror () having a convex specular surface () is constructed and positioned to receive focused solar energy from the primary mirror and focus it onto an annular receiver (). The annular receiver () may include an annular array of optical elements () constructed to receive solar energy from the secondary specular surface () and focus it onto a ring of discrete areas. A ring of solar-to-electrical conversion units are positioned on the ring of discrete areas.

US Patent:

20090266404, Oct 29, 2009

Filed:

Jul 2, 2009

Appl. No.:

12/497256

Inventors:

William E. Horne - Renton WA, US
Mark D. Morgan - Seattle WA, US

Assignee:

Edtek, Inc. - Kent WA

International Classification:

H01L 31/052

US Classification:

136246

Abstract:

A parabolic primary mirror () has a concave specular surface () that is constructed and positioned to receive solar energy and focus it towards a focal point. A secondary mirror () having a convex specular surface () is constructed and positioned to receive focused solar energy from the primary mirror and focus it onto an annular receiver (). The annular receiver () may include an annular array of optical elements () constructed to receive solar energy from the secondary specular surface () and focus it onto a ring of discrete areas. A ring of solar-to-electrical conversion units are positioned on the ring of discrete areas.

US Patent:

58612262, Jan 19, 1999

Filed:

Dec 20, 1996

Appl. No.:

8/771590

Inventors:

William E. Horne - Renton WA
Mark D. Morgan - Kent WA

International Classification:

G03F 900

US Classification:

430 5

Abstract:

A method of fabricating a resonant micromesh filter having conductive antenna elements sized on the order of microns. The steps comprise of first creating an exposure mask having absorbing portions capable of stopping incident ions completely and transmitting portions incapable of stopping incident ions and through which incident ions can pass. The absorbing and transmitting portions form in the mask in the pattern of the antenna elements to be fabricated. Second, an exposure mask confronting an unpatterned filter is positioned. The unpatterned filter includes: a substrate, a thin metal foil mounted on the substrate, and a resist material covering the metal flow. Third, ions are passed through the exposure mask. The absorbing portions of the mask stop the ions and the transmitting portions allow the ions to pass through the mask and expose the section of the resist material of the filter in the pattern of the antenna elements. Fourth, the exposure mask is repositioned over an area of the unpatterned filter not previously exposed to incident ions.