Abstract: A geometric light system comprises a plurality of light panel assemblies, each light panel assembly having geometrically shaped base having a plurality of connectors at midpoints of each side. A printed circuit assembly is mounted to the base and has a plurality of light emitting diodes populated thereon with electronic circuitry for selectively illuminating the light emitting diodes, and a prismatically shaped lens affixed to an upper surface of the base. A controller has a printed circuit assembly which includes circuitry and logic for controlling the plurality of light panels. The controller includes an electrical connector at a bottom of one side thereof for connecting with a light panel. A plurality of rigid bridge connectors, each having two opposed ends and two identical electrical connectors, each connector configured to electrically mate with the electrical connectors about the periphery of the light panels for interconnecting the plurality of light panel.

Abstract: A geometric light system comprises a plurality of light panel assemblies, each light panel assembly having geometrically shaped base having a plurality of connectors at midpoints of each side. A printed circuit assembly is mounted to the base and has a plurality of light emitting diodes populated thereon with electronic circuitry for selectively illuminating the light emitting diodes, and a prismatically shaped lens affixed to an upper surface of the base. A controller has a printed circuit assembly which includes circuitry and logic for controlling the plurality of light panels. The controller includes an electrical connector at a bottom of one side thereof for connecting with a light panel. A plurality of rigid bridge connectors, each having two opposed ends and two identical electrical connectors, each connector configured to electrically mate with the electrical connectors about the periphery of the light panels for interconnecting the plurality of light panel.

Abstract: A multi-positional bar shaped light assembly includes a rear housing defining an interior and an open front. The housing further has a rear wall defining two identical sets of mounting holes therethrough, one at a midpoint of the housing and a second set at one end of the housing. The second set being oriented at a right angle with respect to the first set. A printed circuit assembly is mounted within the rear housing and includes a plurality of linearly aligned light emitting diodes arranged thereon oriented to emit light through the open front of the rear housing. A reflector has an open back and is mounted to the printed circuit assembly, and a translucent lens is attached to the rear housing at the open front. A support stand is affixed to the rear housing at one of the first and second sets of mounting holes.

Abstract: An elongated hexagonal decorative light system comprises a plurality of light panel assemblies, each light panel assembly having an elongate hexagonal shaped base defining two electrical receptacles at each end of the elongate base. A printed circuit assembly is mounted to the base and has a plurality of light emitting diodes populated thereon with electronic circuitry for selectively illuminating the light emitting diodes, and a prismatically shaped lens affixed to the base. A controller has a printed circuit assembly mounted wherein the printed circuit assembly includes the circuitry and logic for controlling the plurality of light panels. The controller includes a signal cord extending therefrom and terminating with an electrical connector receivable in the light panel receptacles. A plurality of connector cables, each having a multi-lead cable segment terminated at each end with an electrical plug receivable in the electrical receptacles in the light panel assemblies.

Abstract: A geometric light system comprises a plurality of light panel assemblies, each light panel assembly having geometrically shaped base having a plurality of connectors at midpoints of each side. A printed circuit assembly is mounted to the base and has a plurality of light emitting diodes populated thereon with electronic circuitry for selectively illuminating the light emitting diodes, and a prismatically shaped lens affixed to an upper surface of the base. A controller has a printed circuit assembly which includes circuitry and logic for controlling the plurality of light panels. The controller includes an electrical connector at a bottom of one side thereof for connecting with a light panel. A plurality of rigid bridge connectors, each having two opposed ends and two identical electrical connectors, each connector configured to electrically mate with the electrical connectors about the periphery of the light panels for interconnecting the plurality of light panel.

Abstract: An electronic cable of the type having a plurality of electrical leads extending between an electronic signal interface connector assembly at each end thereof is provided wherein each electronic signal connector assembly comprises an electronic signal connector having a plurality of signal contacts within a grounding sleeve, each electrical lead being connected to a signal contact. A backshell supports the electronic signal connector extending therefrom. A lens extends about the periphery of the backshell and is affixed thereto. A light emitting diode within the backshell is electrically connected between a power lead and a ground lead and is further oriented to emit light at the lens when energized.

Abstract: A multi-positional bar shaped light assembly includes a rear housing defining an interior and an open front. The housing further has a rear wall defining two identical sets of mounting holes therethrough, one at a midpoint of the housing and a second set at one end of the housing. The second set being oriented at a right angle with respect to the first set. A printed circuit assembly is mounted within the rear housing and includes a plurality of linearly aligned light emitting diodes arranged thereon oriented to emit light through the open front of the rear housing. A reflector has an open back and is mounted to the printed circuit assembly, and a translucent lens is attached to the rear housing at the open front. A support stand is affixed to the rear housing at one of the first and second sets of mounting holes.

Abstract: Alkali metal phosphates and HF can be produced from a substantially calcium-free fluoroaluminum phosphate precipitate (which also contains iron) made by the aging of wet process phosphoric acid containing iron, fluorine and aluminum, preferably phosphoric acid analyzing in the range of about 15%-45 weight percent P.sub.2 O.sub.5, 2-4% Al.sub.2 O.sub.3 and 1-2% fluorine. One process involves digestion of phosphate ore matrix in recycled phosphoric acid, filtration to remove the insoluble residue, precipitation and filtration to remove gypsum, and aging of the product acid to precipitate the aluminum impurity as a fluoroaluminum phosphate compound. The fluoroaluminum phosphate can be decomposed (as by heating at above 195.degree. C.) to produce HF and aluminum phosphate. The aluminum phosphate can be contacted with alkali metal hydroxide under conditions which produce an alkali metal phosphate.

Abstract: Aluminum fluorophosphate can be produced by the aging of phosphoric acid containing fluorine and aluminum, preferably phosphoric acid analyzing in the range of about 15-45 weight percent P.sub.2 O.sub.5, 2-4% Al.sub.2 O.sub.3 and 1-2% fluorine. One process involves digestion of phosphate ore matrix in recycled phosphoric acid, filtration of the insoluble residue, precipitation and filtration of gypsum, and aging of the product acid to precipitate the aluminum impurity as an aluminum fluorophosphate compound. The aluminum fluorophosphate can be decomposed (as by heating at about 195.degree. C.) to produce HF and aluminum phosphate.