Donald A Conemac

6621609, Sep 16, 2003

Mar 27, 2001

09/806163

Donald C. Conemac - Simi Valley CA

Advanced Laser Technologies, Inc. - Simi Valley CA

G02B 2608

359204, 359212, 359216, 348750, 348752, 348760, 347232, 347233

A laser beam display includes at least a first and second plurality of laser beam sources, each of which may preferably be an array of semiconductor lasers, providing a plurality of laser beams in an optical path so as to reflect off of reflective facets of a movable reflector and illuminate a display screen. In a color display, each column of the laser array corresponds to a separate primary color. The separate rows of each array correspond to independently activated but simultaneously driven scan lines to be illuminated by the laser beam scanning apparatus. The plural laser beam arrays subdivide the width of the screen into smaller scan segments to increase the scanning angle or increase the horizontal scanning speed of the apparatus. Tilted facets illuminate different vertical sections of the screen with the laser beams as the reflector rotates. A scan format employing simultaneously illuminated diagonal scan tiles provides optimal use of the plural laser beam arrays.

6839042, Jan 4, 2005

Oct 24, 2001

10/000945

Donald C. Conemac - Simi Valley CA, US
Eric Harlen Ford - La Canada CA, US

Advanced Laser Technologies, Inc. - Camarillo CA

G09G 300

345 32, 345108, 345110, 359204, 359216

A light beam display employing interlaced light beam scanning comprising a display screen having a vertical and a horizontal dimension, a source of a plurality of light beams and an optical path including a movable reflector having a plurality of reflective facets between the display screen and the light beam source. The movable reflector directs the plural light beams to the display screen via one or more facets of the movable reflector to simultaneously illuminate plural different scan lines of the display which are spaced apart by plural non-illuminated scan lines. An optical mechanical element is provided for vertically shifting the light beams so as to illuminate different scan lines of the display screen.

7493049, Feb 17, 2009

Nov 23, 2005

11/164455

Donald Conemac - Santa Clarita CA, US

H04B 10/12
H04B 10/00
H04R 25/00

398141, 398140, 381150, 381172

An invention is disclosed whereby an analog audio signal are transmitted over distances through a flexible medium using electro-optical radiation as the carrier of the audio signal. The analog audio signal is never converted into a digital mode nor is the signal ever filtered. The resultant analog sound that is delivered to the opposite end of the flexible medium is 100% modulated with a de minimus amount of signal loss due to noise. Though the best mode of this invention is it's application to guitar cords, any form of audio analog input will function within this invention, whereby a bundle of fiber optic cables that are capable of a high amount reflectivity, with or without the presence of an element that increases or facilitates luminescence, will become saturated with light which varies in intensity with the amplitude of the sound. This invention concedes that safety is a predominant factor when associating electrical energy with those products that people can be in contact therewith. This invention uses both direct and alternating currents but does so at very low voltages.

20010048787, Dec 6, 2001

May 14, 2001

09/854863

Donald Conemac - Simi Valley CA, US

G02B006/28

385/024000

An optical signal generator suitable for high capacity multi-fiber optical data transmission or switching applications is disclosed. An optical signal generator, adapted for use in a fiber optic network, comprises a plurality of optical fibers respectively coupled to plural nodes of the fiber optic network. The optical signal generator includes an input optical channel providing a light beam and an acousto-optic modulator receiving the light beam and providing a plurality of separate output light beams. Each of the output light beams is independently optically coupled to a respective optical fiber. An acousto-optic modulator controller circuit is coupled to receive a data input and drives the acousto-optic modulator to independently modulate the plural output beams based on the input data.

56467664, Jul 8, 1997

Feb 2, 1994

8/162043

Donald C. Conemac - Moorpark CA

Advanced Laser Technologies, Inc. - Carpinteria CA

G02B 2608
H01S 310

359204

A laser beam scanning apparatus employs a movable reflector (32) having a large number of flat reflective sides (44) a deflector (16) which shifts the laser beam (10) at high speed across a plurality of the reflective sides (44). The movement of reflector (32) is synchronized with the deflection of the laser beam (10) to produce a desired scan pattern in a first scan direction (X). The reflective sides (44) of the movable reflector (32) may be angled relative to each other in a second direction (Y) to produce different scan lines thereby providing an X-Y scan pattern. The combined high speed beam deflection and motion of the reflector (32) provide scanning of the beam (10) in parallel scan segments thereby providing high scanning speed of the beam with a high degree of resolution.

61340502, Oct 17, 2000

Nov 25, 1998

9/200548

Donald C. Conemac - Moorpark CA

Advanced Laser Technologies, Inc. - Simi Valley CA

G02B 2710
G02B 300
G02B 110

359618

A laser beam mixer combines two or more input laser beams in a coaxial manner to provide an output beam. At least one of the input beams is altered in cross-sectional profile, for example, to an annular cross-sectional shape. Another input beam is placed within the altered beam by a beam combining element having a transmissive portion and a reflective portion to respectively reflect and transmit the two input beams. The beams are combined with minimal beam losses and without diverging a beam profile.

60089253, Dec 28, 1999

Jul 3, 1997

8/887947

Donald C. Conemac - Moorpark CA

Advanced Laser Technologies, Inc. - Carpinteria CA

G02B 2608
H01S 310

359204

A light beam scanning apparatus employs a movable reflector (32) having a large number of flat reflective sides (44) and a deflector (16) which shifts the light beam (10) at high speed across a plurality of the reflective sides (44). The movement of the reflector (32) is synchronized with the deflection of the light beam (10) to produce a desired scan pattern in a first scan direction (X). The reflective sides (44) of the movable reflector (32) may be angled relative to each other in a second direction (Y) to produce different scan lines thereby providing an X-Y scan pattern. The combined high speed beam deflection and motion of the reflector (32) provide scanning of the beam (10) in parallel scan segments thereby providing high scanning speed of the beam (10) with a high degree of resolution.

51669447, Nov 24, 1992

Jun 7, 1991

7/711757

Donald C. Conemac - Moorpark CA

Advanced Laser Technologies, Inc. - Westlake Village CA

H01S 310

372 24

A laser beam scanning apparatus employs a movable reflector having a large number of flat reflective sides and a deflector which shifts the laser beam at high speed across a plurality of the reflective sides. The movement of the reflector is synchronized with the deflection of the laser beam to produce a desired scan pattern in a first scan direction. The reflective sides of the movable reflector may be angled relative to each other in a second direction to produce different scan lines thereby providing an X-Y scan pattern. The combined high speed beam deflection and motion of the reflector provide scanning of the beam in parallel scan segments thereby providing high scanning speed of the beam with a high degree of resolution.