Abstract: A method of controlling a plurality of lights on a vehicle lighting system provides a first and second light having a first and second processor. Each is in operative communication with a bus establishing an operative communication between the first and second processor. A master processor is arbitrated among the first and second processors. Thereafter the master processor signals the first and second processors to execute a preconfigured flash pattern.

Abstract: A light beacon includes a base, a plurality of towers supported on the base, a first set of LEDs having a first color mounted on each of said towers and a second set of LEDs having a second color also mounted on each of said towers. A microprocessor in operative communication with each of the first and second LEDs is configured to illuminate the first set of LEDs through a defined channel either simultaneously or sequentially, at a user's option through a user interface. The processor is further configured to illuminate the second set of LEDs through a defined channel either simultaneously or sequentially at a user's option. A lens mounted on the housing directs light from the LEDs in a preconfigured distribution.

Abstract: A flexible amplification system for wireless data networks is disclosed. The amplification system may be powered from multiple sources including power over coaxial cable, obviating the need for independent data and power cables. The amplification system may be digitally controlled to optimize bi-directional transmit and receive capabilities and to produce a constant output.

Abstract: A flexible amplification system for wireless data networks is disclosed. The amplification system may be powered from multiple sources including power over Ethernet, obviating the need for independent data and power cables. The amplification system may be digitally controlled to optimize bi-directional transmit and receive capabilities and to produce a constant output.