Physical Optics Corporation

Optech Ventures, LLC

Farlight, LLC

Yevgeniy Y Durets

Alexander Rizkin

Robert H Tudhope

David Ruiz

Carl E Oberg

Robert A Lieberman

Edgar A Mendoza

Vladimir Rubtsov

Methods and apparatus for producing an optical waveguide illuminator are disclosed. By controlling the propagation of light in the core and cladding regions of the waveguide, distributed light emission along a length of an optical fiber or along a planar waveguide surface can be achieved by varying the core/cladding refractive index ratio and introducing light scattering centers in the core.

Optical waveguide illuminator

A remote light source lighting system is provided having an illuminator assembly including a housing. Held within the housing is a high intensity light source for providing light energy to a fiber optic cable bundle connected to the housing and facing the light source. The cable bundle includes a plurality of plastic optical fibers wherein at least one of the terminal ends of the bundle is formed by molding an optical quality resin around an optically transparent ferrule that binds the exposed ends of the optical fibers. The housing further includes a separate air plenum containing a blower. The blower produces a high velocity air stream directed precisely at the terminal end of the cable adjacent the light source to cool the terminal end.

High efficiency lighting system having a remote light source

Surface light assemblies are disclosed that are particularly useful as edge light assemblies for illuminating the outer boundaries of a deck of a ship or a heliport and as line-up light assemblies for illuminating a path on a surface such as a ship deck, a runway or the like. The light assembly includes a fiber optic cable connected to the bottom of a housing or enclosure which distributes light from a terminal end of the cable. The terminal end may include a transformer which produces a particular spread or cone of a light output pattern. Alternatively, a diffuser or optical element may be placed directly adjacent the terminal end of the cable or transformer which shapes, directs and homogenizes light emanating from the cable. The light assembly can include a durable glass window which protects the diffuser and cable and which can be adapted to filter out certain wavelengths of light producing a light output in a desired color. Such a construction is particularly useful for deck edge lighting. Alternatively, the light may be aimed or directed by a reflective surface directly toward a particular location in a specified narrow pattern. Such a construction is particularly useful for line-up light assemblies.

Surface mounted light assembly

An illuminator for a high energy remote lighting system includes a light source for generating light energy and a selectively positionable light output modifying apparatus having a plurality of light output modifying elements, each element corresponding to a predetermined position of at least a portion of the apparatus. At least some of the light output modifying elements of the apparatus are configured to filter light energy to provide either dimmed or colored light. The illuminator can be implemented in a system having a plurality of area control panels, each control panel generating a control signal indicative of a corresponding light characteristic, the illuminators each being coupled to a corresponding one of the area control panels to receive the control signal and to output a particular type of light in response thereto.

Remote illumination system having a light output modifying apparatus

A remotely illuminated lighting system (10) incorporates a lighting system sequencer (18) for providing a sequenced distribution of light signals to a plurality of light distribution devices (108, 208, 210 and 212). An illumination source (12) provides focused light signals (44, 46) to the lighting system sequencer (18). The lighting system sequencer (18) includes an optical scanner (22) and an electronic control (24) for selectively directing the light signals (44, 46) to individual optical fibers (20) of a fiber-optic distribution system. The optical fibers (20) couple the light signals to the luminaires (108, 208, 210 and 212), which sequentially illuminate in accordance with a desired pattern.

Growing community of inventors

Long Beach, CA, United States of America

Yevgeniy Y Durets