Abstract: A LED light assembly, the light assembly comprising a reflective plate comprising a plurality of perforations formed therethrough the reflective plate, a plurality of LED bulbs wherein each LED bulb protrudes through a respective perforation of the plurality of perforations, and a control circuit selectively operable to produce a plurality of colored lights through the plurality of LED bulbs wherein the control circuit comprises a switch which when activated a defined number of times produces a plurality of at least light colors and light patterns wherein each of the plurality of at least light colors and light patterns are selected based on the defined number of times the switch is activated.

Abstract: A lighting apparatus that includes a flexible circuit board having a plurality of conductive terminals and at least one electronic component attached thereto such that the lengths of the terminals and component are substantially perpendicular to the longitudinal axis of the circuit board. A plurality of light emitting elements, such as light emitting diodes (LED), is connected to the conductive terminals. The conductive terminals and corresponding LED leads may be located on one planar surface of the circuit board or may be distributed along both planar surfaces. Each one of a pair of the conductive terminals may be located on opposite surfaces of the circuit board so that the leads from an LED will straddle an upper edge of the circuit board. A method for installing a lighting apparatus includes providing a mounting means that will hold the flexible apparatus so that it is in a substantially upright position.

Abstract: A fiber optic light source having an improved cooling scheme for preventing heat damage to the fiber optic cable input ends. The housing for the light source is divided into two sections, with a separate cooling air supply for each section. The first section is provided with a high volume cooling air flow for general area cooling of the lamp assembly, power supply and other exothermic components. The second section is provided with a high velocity cooling air flow directed at the fiber ends. The second cooling air flow is isolated from the heat generated by the lamp assembly and is provided to the fiber ends at essentially ambient temperature.

Abstract: A fiber optic light source having an improved cooling scheme for preventing heat damage to the fiber optic cable input ends. The housing for the light source is divided into two sections, with a separate cooling air supply for each section. The first section is provided with a high volume cooling air flow for general area cooling of the lamp assembly, power supply and other exothermic components. The second section is provided with a high velocity cooling air flow directed at the fiber ends. The second cooling air flow is isolated from the heat generated by the lamp assembly and is provided to the fiber ends at essentially ambient temperature.