Brilliant Film LLC

Trivium Technologies, Inc.

International Business Machines Corporation

Other

Brillant Film LLC

Brilliant Films LLC

Neil D Lubart

Timothy Wojciechowski

Thomas E Lash

Richard W Clikeman

Charles Ronald Mayfield

Albert Durr Edgar

Kent R Demke

Karen L Spilizewski

Donald J Davis

Andrew P Laurence

Timothy J Wojeiechowski

Charles R Mayfield

The invention is directed to a system for concentrating light for solar thermal and solar photovoltaic generating systems. The system includes a plurality of concentrating regions. Each concentrating region includes an input end having a perimeter or width in a lenticular configuration, an output end having a perimeter or width in a lenticular configuration, and a portion located therebetween defined by a reflective boundary. The invention is also directed to a method of manufacturing a light collection system. The method includes forming a film having multiple recesses. Each recess includes an input end, an output end and a reflective boundary. The output end has a smaller perimeter or a width in a lenticular configuration than a perimeter or a width of the input end in the lenticular configuration.

Concentrators for solar power generating systems

Integrated sub-assemblies for light management are disclosed herein. The integrated sub-assemblies include a plurality of films and/or elements, including a light collimating device and/or a transflecting device. At least two of the elements are coupled such that there is no air layer between the coupled elements.

Integrated sub-assembly having a light collimating or transflecting device

A liquid crystal module comprising a liquid crystal layer containing a plurality of pixels therein, a waveguide layer, and a reflective layer provided between the liquid crystal layer and the waveguide layer, the reflective layer includes a plurality of reflective areas and a plurality of apertures to permit light to pass therethrough. The waveguide layer can include a transparent material having first and second surfaces and a plurality of spaced-apart waveguide structures defining apertures therebetween disposed within the transparent material. The waveguide structures can be configured to guide light, entering the first surface of the transparent material, through the film and permit such light to exit the second surface of the transparent material.

Devices for use in non-emissive displays

A collimating device and a transflector for use in a system having a backlight is disclosed herein. In one embodiment of the application, the collimating device and the transflector each include an immersing layer, a reflecting layer, and an optical element layer formed from a plurality of three-dimensional, optical elements. Each optical element is tapered such that a small area end has a horizontal plane cross-sectional area that is less than that of a wide area end. The optical elements of the collimating device are tapered towards the backlight and the optical elements of the transflector are tapered away from the backlight. The reflecting layer has apertures which correspond to the position and shape of the light input ends of the optical elements.

System for collimating backlight

A method for manufacturing a collimating device is disclosed herein. In one embodiment the method includes a step of constructing a reflective layer. After the reflective layer is constructed, a step of constructing an optical element layer follows, including a step of forming an array of microstructures in the optical element layer. Next, the array of microstructures is abutted against the reflective layer. Heat and pressure are then applied to the optical element layer to puncture the reflective layer and penetrate a predetermined distance through the reflective layer. Sub-assemblies are also defined, wherein optical elements are coupled to prevent light loss.

Method for making collimating or transflecting film having a reflective layer

Light collimating device

A light control device is disclosed that includes a two film construction, each film having a plurality of light reflecting regions. For example, the light absorbing elements can be a series of grooves or column-like indentations in the films that are filled or coated with a light reflecting material having a lower index of refraction than that of the films. The two films can be adjacently disposed so that their respective light reflecting regions form a plurality of light reflecting elements that extend along the thickness direction of the device.

Light control devices and methods of making same

A device which simultaneously maximizes light reflectivity from one side of the device while maximizing light transmissivity from the opposite side of the device. The device is configured with distinct regions of transparency and reflectivity including a plurality of reflective structures. The structures are generally smaller towards a light transmitting side of the device and larger towards a light reflective side of the device.

Device having reflective and transmissive properties

A device which simultaneously maximizes light reflectivity from one side of the device while maximizing light tansmmissivity from the opposite side of the device. The device is configured with distinct regions of transparency and reflectivity including a plurality of reflective structures. The structures generally smaller towards a light transmitting side of the device and larger towards a light reflective side of the device.

A film which simultaneously maximizes light reflectivity from one side of the film while maximizing light transmissivity from the opposite side of the film. This is achieved by configuring the film with distinct regions of transparency and reflectivity where the extended boundary of the reflective region is shaped into a light funnel/pipe and where periodically placed discrete and/or extended/continuous shapes are created (such as extended triangular indentations, or discrete shapes such as a cone, a pyramid, or any polyhedron). The reflective region is composed of mirror-like material such as aluminum or silver, but may be a composite paste, a composite material, or multiple materials with different refractive indices or reflective qualities. In some embodiments, the reflective material is embedded in the transparent material such that the base of each shape is approximately parallel to and coincident with, or slightly recessed from the surface of the transparent material. In other embodiments, the reflective material is embedded in the transparent material such that the base of each shape is set at an angle to the surface of the transparent material. The transparent material will be continuous on at least one surface such that the transparent material forms the boundary for the film. The reflective regions and the transmissive regions may be configured according to application specification.

Film having transmissive and reflective properties

There is disclosed a technique for improving user perceived quality of an LCD device comprising optimizing the electrode width and inter-electrode spacing, and simultaneously causing inter-electrode spaces and information to appear dark while the background appears bright.

Perceived contrast of liquid crystal displays

A diagonal pel grid is used in a raster scanned CRT display. This is achieved by displacing alternate scan fields by a half-pel in both axes to form a diagonal checkerboard grid that is interlaced in two axes. This substantially reduces the number of displayed pels to achieve a given quality as perceived by the human eye or substantially increases the apparent resolution of the image when the same number of pels are used as are used in a given rectangularly scanned application.

Growing community of inventors

Austin, TX, United States of America

Neil D Lubart