Abstract: A rapidly deployable portable lighting system includes a low voltage rechargeable power source, lights, and a wiring harness configured for being coupled to the lights with quick-release connectors. Each light includes a housing, LEDs receiving power from the power source and transmitting light of at least two colors, and a power port for connecting to the wiring harness. A controller is configured to selectively switch individual LEDs on and off, independently of one another, to control illumination. A smart case houses the power source and controller integrally therein, and is sized and shaped to receive the lights and wiring harness for storage and transport. The lights and wiring harness may be removed from the case for deployment.

Abstract: A rapidly deployable portable lighting system includes a low voltage rechargeable power source, lights, and a wiring harness configured for being coupled to the lights with quick-release connectors. Each light includes a housing, LEDs receiving power from the power source and transmitting light of at least two colors, and a power port for connecting to the wiring harness. A controller is configured to selectively switch individual LEDs on and off, independently of one another, to control illumination. A smart case houses the power source and controller integrally therein, and is sized and shaped to receive the lights and wiring harness for storage and transport. The lights and wiring harness may be removed from the case for deployment.

Abstract: A light system and method includes a housing having an array of LEDs spaced to transmit light within a field of illumination. An EM sensor disposed within the housing is configured to detect EM radiation within the field of illumination. A processor is configured to generate an output in response to levels of EM radiation, such as visible light, infrared light, and/or radio frequency (RF) radiation detected by the EM sensor relative to a predetermined setpoint.

Abstract: A lighting system and method is provided for tracking movement within a predetermined area. This system includes a plurality of lights installed at predetermined locations throughout the predetermined area, each having at least one sensor with a field of view. The lights include a computing module operatively associated with each sensor, and a communication module operatively associated with the computing module. The lights are configured to communicate with one another and capture sensor output to identify and record points at which the fields of view overlap with one another, to form a unified sensor network having a composite field of view. The system and method is configured to track changes associated with individual targets within the composite field of view.

Abstract: A lighting system and method is provided for tracking movement within a predetermined area. This system includes a plurality of lights installed at predetermined locations throughout the predetermined area, each having at least one sensor with a field of view. The lights include a computing module operatively associated with each sensor, and a communication module operatively associated with the computing module. The lights are configured to communicate with one another and capture sensor output to identify and record points at which the fields of view overlap with one another, to form a unified sensor network having a composite field of view.

Abstract: A light system and method includes a housing having an array of LEDs spaced to transmit light within a field of illumination. An EM sensor disposed within the housing is configured to detect EM radiation within the field of illumination. A processor is configured to generate an output in response to levels of EM radiation, such as visible light, infrared light, and/or radio frequency (RF) radiation detected by the EM sensor relative to a predetermined setpoint.

Abstract: An AC/DC electrical distribution panel includes a housing, a line voltage alternating current (AC) port configured for connection to an electrical distribution grid at line voltage, and a low voltage direct current (DC) port configured for connection to a DC load. A circuit board assembly is electrically coupled to the AC port and the DC port, and includes an AC connector array coupled to the AC port, and a DC connector array coupled to the DC port. One or more modular AC/DC power supplies are removably coupled to the AC and DC connector arrays. A processor is operatively engaged with the circuit board assembly, and configured to selectively switch the power supplies on and off. The circuit board assembly includes a current meter configured to monitor the current load being drawn from the DC port, wherein the processor is configured to selectively activate and deactivate various power supplies in response to the monitored current load.